PHYS 105Introduction to Physics for Health Care Professions0.50 units
This course provides a concise introduction of physics for health care professions, covering the following topics: base and derived units, vectors and scalars, kinematics in one and two dimensions, dynamics, circular motion and gravitation, equilibrium, elasticity, fluids, hydrostatics, fluid dynamics, vibration, waves, sound, electrostatics, current electricity, magnetism, light, basic geometrical optics, thermodynamics, introductory atomic and nuclear physics. Emphasis is placed on understanding the fundamentals of physics with applications tailored to living systems, offering insights applicable across diverse health care professions.
Antirequisites
Complete all of the following
Not completed nor concurrently enrolled in any of the following:
An introduction to physics for students intending to concentrate their further studies in biology, dentistry, medicine and paramedicine; includes particle kinematics and dynamics, energy and momentum conservation, and rotational mechanics.
Antirequisites
Not completed nor concurrently enrolled in any of the following:
A continuation of PHYS 111; includes simple harmonic motion, electrostatic force and potential, electric current and power, DC circuits, magnetic field and induction, wave motion, sound, and optics.
Brief review of kinematics. Particle dynamics, work, energy, conservation of energy. Conservation of linear momentum, collisions, rotational kinematics and dynamics, conservation of angular momentum. Equilibrium of rigid bodies.
Prerequisites
Complete all of the following
Complete 1 of the following
Students must be in level 1A
Students must be in level 1B
Enrolled in a program offered by the Faculty of Engineering
Antirequisites
Not completed nor concurrently enrolled in any of the following:
An introductory calculus-based course in physics for students intending to concentrate their future studies in the physical sciences or mathematics; includes vectors (dot and cross products), 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.
Prerequisites
Must have completed the following: 4U Calculus and Vectors, 4U Advanced Functions, and 4U Physics
Corequisites
Completed or concurrently enrolled in at least 1 of the following:
ECE205 - Advanced Calculus 1 for Electrical and Computer Engineers (0.50)
MATH104 - Introductory Calculus for Arts and Social Science (0.50)
An introductory course in electricity and magnetism for students intending to concentrate their future studies in the physical sciences or mathematics. Concepts include electrostatic force and potential, electric current and power, capacitors, DC circuits, magnetic force and fields, and Faraday’s Law.
Prerequisites
Complete 1 of the following
Must have completed at least 1 of the following:
AMATH271 - Introduction to Theoretical Mechanics (0.50)
A survey course in astrophysics intended for Physics and Astronomy students. Astrophysical processes, the sky, the Sun, stars, black holes, the Milky Way and other galaxies, Big Bang cosmology.
An introductory course in oscillations and waves and their importance to a wide variety of modern physics topics. Concepts include simple harmonic motion, resonance, damped harmonic motion, wave motion and interference, wave optics and diffraction, quantum mechanics.
Prerequisites
Complete all of the following
Complete 1 of the following
Must have completed at least 1 of the following:
AMATH271 - Introduction to Theoretical Mechanics (0.50)
Introduction to modelling living systems and their components. Statistical methods in data analysis, curve fitting, including p values. Fourier series and transforms, structural analysis, including nearest neighbour distributions in biomedical applications. Introduction to methods for analysis of transport properties in biological systems. Use of computers in these areas.
Prerequisites
Complete all of the following
Must have completed at least 1 of the following:
CS114 - Principles of Computing for Science (0.50)
PHYS 233Introduction to Quantum Mechanics0.50 units
Introduction to quantization, wave-particle duality and the uncertainty principle The Schroedinger equation and solvable examples. Topics will include stationary states of particle-in-a-box, harmonic oscillator, and the hydrogen atom. Quantization of angular momentum and spin. Introduction to approximation methods including time-independent perturbation theory. Modern applications of quantum mechanics.
Background of quantum physics. Introduction to formalism of quantum physics. Introduction to operators. Quantization, waves, and particles. Spins and Dirac notation. The uncertainty principle. The Schroedinger equation for one-dimensional problems: bound states in square wells, harmonic oscillator, transmission through barriers.
Review of vector calculus. Electrostatic field in vacuum, Coulomb's law and the superposition principle, Maxwell's equations for the electrostatic field, electrostatic potential, magnetostatic field in vacuum, Maxwell's equations for the magnetostatic field, Biot-Savart law, vector potential, inductance.
PHYS 249Linear Algebra for Physics and Astronomy0.50 units
Vectors in 2- and 3-space and their geometry. Linear equations, matrices, and determinants. Introduction to vector spaces. Eigenvalues and diagonalization. Complex numbers. Applications to physics and astronomy, including use of Python libraries and implementation.
Prerequisites
Complete all of the following
Must have completed at least 1 of the following:
CS114 - Principles of Computing for Science (0.50)
Geometrical optics: image formation, ray tracing through multiple optical components, dispersion by prisms, optical fibers, optical instruments - eyes, telescopes, microscopes, and cameras, introduction to aberrations; physical optics: interference and interferometers, diffraction, imaging resolution, diffraction gratings and their use in spectroscopy; wave-particle duality; introduction to the electromagnetic nature of light and polarization.
PHYS 263Classical Mechanics and Special Relativity0.50 units
Newtonian dynamics of particles and systems of particles. Oscillations. Gravity and the central force problem. Lorentz transformations and relativistic dynamics.
PHYS 267Probability, Statistics, and Data Analysis for Physics and Astronomy0.50 units
Probability, probability distributions, errors, descriptive statistics, statistical inference (hypothesis testing, fitting, confidence intervals), computational methods in Python, including algorithms for numerical integration; examples from physics and astronomy.
Prerequisites
Complete all of the following
Must have completed at least 1 of the following:
CS114 - Principles of Computing for Science (0.50)
Introduction to a physical understanding of biological systems at macro and molecular scales. The course is intended for second-year science and engineering students and will cover a broad spectrum of topics in biophysics, as well as an introduction to neurobiology, nanotechnology, and biotechnology.
Prerequisites
Complete all of the following
Students must be in level 2A or higher
Complete 1 of the following
Enrolled in an Honours Science program
Enrolled in a program offered by Faculty of Engineering
Formalism of quantum mechanics. Operator approach to the harmonic oscillator. Quantum mechanics in three dimensions: Hydrogen atom, angular momentum and spin. Time-independent perturbation theory. Fine structure of hydrogen. Zeeman effect. Identical particles. The variational principle. Ground state of the helium atom. Applications in atomic and molecular physics.
Prerequisites
Complete all of the following
Must have completed at least 1 of the following:
AMATH250 - Introduction to Differential Equations (0.50)
AMATH251 - Introduction to Differential Equations (Advanced Level) (0.50)
MATH228 - Differential Equations for Physics and Chemistry (0.50)
Algorithms for solving differential equations; Monte Carlo techniques; Fourier transforms; programming and computational techniques using Python, applied to physical problems such as astrophysics, electricity and magnetism, classical and quantum mechanics; introduction to machine learning and artificial intelligence.
Prerequisite of PHYS 249 or PHYS 267 is dependent on when credit was earned for each: PHYS 249 (fall 2024 or earlier); PHYS 267 (fall 2025 or later).
Geometrical optics: image formation, ray tracing through multiple optical components, dispersion by prisms, optical fibers, optical instruments - eyes, telescopes, microscopes, and cameras, introduction to aberrations; physical optics: interference and interferometers, diffraction, imaging resolution, diffraction gratings and their use in spectroscopy; coherence; wave-particle duality; introduction to the electromagnetic nature of light and polarization.
Prerequisites
Complete all of the following
Must have completed at least 1 of the following:
AMATH250 - Introduction to Differential Equations (0.50)
AMATH251 - Introduction to Differential Equations (Advanced Level) (0.50)
MATH228 - Differential Equations for Physics and Chemistry (0.50)
PHYS 357Statistical Mechanics and Thermodynamics0.50 units
Temperature and thermodynamic equilibrium. Work, internal energy, heat. First law. Kinetic theory of gases and the Maxwell-Boltzmann distribution. Absolute temperature, reversibility, entropy and the second law. Thermodynamic potentials and Maxwell's relations. Phase transitions. Third Law. Fundamental principles of statistical mechanics including the microcanonical and canonical ensembles.
Prerequisites
Complete all of the following
Must have completed at least 1 of the following:
AMATH250 - Introduction to Differential Equations (0.50)
AMATH251 - Introduction to Differential Equations (Advanced Level) (0.50)
MATH228 - Differential Equations for Physics and Chemistry (0.50)
Must have completed at least 1 of the following:
ECE206 - Advanced Calculus 2 for Electrical Engineers (0.50)
MATH212 - Advanced Calculus 2 for Electrical Engineers (0.50)
MATH217 - Calculus 3 for Chemical Engineering (0.50)
Temperature and thermodynamic equilibrium. Work, internal energy, and heat; first law, with examples. Kinetic theory of gases. Basic probability theory. Microscopic states and entropy. Absolute temperature, reversibility, and the second law. Thermodynamic Functions and Maxwell's relations. Phase transitions. Third Law. Other applications of thermodynamics.
Prerequisites
Complete all of the following
Must have completed at least 1 of the following:
AMATH250 - Introduction to Differential Equations (0.50)
AMATH251 - Introduction to Differential Equations (Advanced Level) (0.50)
MATH228 - Differential Equations for Physics and Chemistry (0.50)
Fundamental postulate of statistical thermodynamics. Entropy. Microcanonical, canonical, and grand canonical ensembles. Fermi-Dirac, Bose-Einstein, and Boltzmann Statistics. Maxwell-Boltzmann velocity distribution. Applications to specific heat of solids, classical and quantum gases, electrons in metals, Planck's law of radiation, and Bose-Einstein condensation.
Prerequisites
Complete all of the following
Must have completed at least 1 of the following:
CHEM254 - Introductory Chemical Thermodynamics (0.50)
Complex variables, Cauchy-Riemann conditions, Cauchy integral formula, Taylor and Laurent expansions, residue theorem, contour integrals and applications. Fourier and Laplace transforms with applications. Green's functions.
Stellar distances, masses, ages. Stellar interiors and atmospheres, star formation and evolution. Supernovae, white dwarfs, neutron stars, black holes.
Prerequisites
Complete all of the following
Must have completed at least 2 of the following:
AMATH271 - Introduction to Theoretical Mechanics (0.50)
Special relativity: spacetime diagrams and Lorentz transformations; relativistic kinematics and dynamics in flat spacetime; four-vector/tensor notation. Relativistic physics in curved spacetimes: gravity as geometry; description of curved spacetimes; geodesics; physics in spherically symmetric and rotating spacetimes; introduction to gravitational waves.
PHYS 380Molecular and Cellular Biophysics0.50 units
Cell structure and molecular composition; intermolecular interactions and hydration; protein structure and function; cytoskeletal filaments; DNA structure, packing and chromosomes; rate equations and biological dynamics (e.g., cytoskeletal polymerization); self-assembly; cell membranes; action potentials and biological electricity; molecular motors; cell motility.
Applications of physics in medicine. The course will address basic concepts of medical imaging, nuclear medicine and radiation isotopes, radiation therapy and biomedical laser applications. Nuclear structure and binding energy. Nuclear decays, radioactivity and nuclear reactions. Interaction of radiation with matter.
Norton and Thévenin equivalent circuits, bipolar junction and field-effect transistors, operational amplifiers, negative feedback, noise, common circuits used for measurement and control of laboratory experiments, introduction to digital circuits.
PHYS 395Biophysics of Therapeutic Methods0.50 units
The effect of radiation of various kinds on cells and tissues; elements of radiobiology and photobiology; molecular mechanisms of radiation-induced DNA damage and cell death, repair of radiation damage, dose-response relationships; tumor radiobiology and therapies, radiotherapy, photodynamic therapy, combination therapies; radiosensitizers and photosensitizers for cancer therapies; transdisciplinary advances in physical methods (ultrafast laser and ultrasound techniques) for biomedical applications.
Introduction to imaging concepts in biophysics with emphasis on the interrelationship between the physics principles of an imaging modality and the associated image reconstruction; methods for imaging at macroscopic to microscopic scales; computed tomography, magnetic resonance imaging, ultrasound, PET, optical imaging, optical and fluorescence microscopy, scanning probe microscopy (AFM, STM), optical tweezers, electron microscopy.
Symmetries and conservation laws. Review of time-independent perturbation theory (degenerate and non-degenerate, Rayleigh-Schrodinger, Brillouin-Wigner and canonical perturbation theory; effective Hamiltonian derivation). Time-dependent perturbation theory (first and second order, adiabatic perturbation, Aharonov-Bohm effect). Fermi's golden rule. Two-level systems. Emission and absorption of radiation (applications). Second quantization of electromagnetic field in free space; photons. Spontaneous emission and natural lifetime; Lamb shift. Elements of scattering theory. Introduction to the Dirac equation.
Overview of condensed matter ordered and disordered systems. Thermodynamic origin of order and phase transitions. Waves. Properties of the solid state. Crystals and fractals. Overview of Fourier Series. Reciprocal lattice. Diffraction. Classical elastic theory of the crystalline state. Electrons in a periodic potential, Band structure, and Fermi surface.
Review of the origin of Maxwell's equations, conservation laws, potential formulation of Maxwell's equations and gauge choices, vacuum solutions of Maxwell's equations (free space, waveguides, dispersion), solution to Maxwell's equations for arbitrary sources (static and time-dependent problems), relativistic formulation of electrodynamics, macroscopic Maxwell's equations and plane waves in macroscopic media.
An introduction to modern particle and nuclear physics. Topics covered include symmetries, particle classification, experimental methods and tools, scattering, fundamental forces, and interactions. Other topics may include structure of the nucleus, structure of nucleons, proton decay, the Standard Model, and the Higgs mechanism.
PHYS 449Special Topics in Computational Physics0.50 units
The application of advanced computational methods to solve physics problems, model complex phenomena, and analyze large amounts of data. Other topics may include applications of machine learning techniques, GPU programming, and artificial intelligence.
Statistical methods for many-particle systems. Statistical ensembles, mixed states, density matrices, and entropy; quantum gases including Bose–Einstein and Fermi–Dirac statistics; the partition function and thermodynamic potentials; interacting systems; phase transitions; critical phenomena, other topics as time permits.
Prerequisites
Complete all of the following
Must have completed the following:
PHYS357 - Statistical Mechanics and Thermodynamics (0.50)
Symmetries: Introduction to Lie groups, Lie algebras, and representation theory, Gauge theory. Extensive applications in physics. Other topics depending on time.
Robertson-Walker metric and Friedmann equations. Observational cosmology. Dark matter and dark energy. Gravitational lensing. Big Bang nucleosynthesis, the cosmic microwave background. Inflation. Structure formation.
Prerequisites
Complete all of the following
Must have completed at least 1 of the following:
AMATH271 - Introduction to Theoretical Mechanics (0.50)
PHYS263 - Classical Mechanics and Special Relativity (0.50)
Students must be in level 4A or higher
Enrolled in a program offered by the Faculties of Mathematics or Science
PHYS 476Introduction to General Relativity0.50 units
Tensor analysis. Curved space-time and the Einstein field equations. The Schwarzschild solution and applications. The Friedmann-Robertson-Walker cosmological models.
Advanced topics in biophysics will be presented, with content changing depending on instructor expertise and current topics of interest. Topics may include radiation biophysics (the effect of radiation on various kinds of cells and tissues, mechanisms of radiation-induced DNA damage and cell death, tumour radiobiology and therapies, etc.); the physics behind imaging techniques (computed tomography, optical imaging, microscopy, etc.); recent research topics and emerging techniques in biophysics and medical biophysics.
Prerequisites
Complete all of the following
Must have completed the following:
MATH228 - Differential Equations for Physics and Chemistry (0.50)
PHYS267 - Probability, Statistics, and Data Analysis for Physics and Astronomy (0.50)
PHYS380 - Molecular and Cellular Biophysics (0.50)
PHYS 483Advanced Therapeutic Concepts in Oncology and Medical Physics0.50 units
This course examines advanced oncology therapeutic concepts required as a foundation for patient management in the inpatient, ambulatory, and community settings. Topics include a comprehensive review of cancer epidemiology and pathophysiology, therapeutic agents used in the oncology setting, management of cancer therapy toxicities, and treatment and palliation of cancer symptoms. Physics methods in radiation therapy and the medical physicist's role in cancer treatment will be addressed.
PHYS 601Perimeter Scholars International Quantum Field Theory 10.50 units
Canonical quantization of fields, perturbation theory, derivation of Feynman diagrams, applications in particle and condensed matter theory, renormalization in phi^4.
PHYS 604Perimeter Scholars International Relativity0.50 units
Special relativity, foundations of general relativity, Riemannian geometry, Einstein's equations, FRW and Schwarzschild geometries and their properties
PHYS 605Perimeter Scholars International Quantum Theory0.50 units
Schrodinger equation: free particle, harmonic oscillator, simple time-dependent problems. Heisenbrerg picture and connection with classical physics. Entaglement and non-locality. Pure and mixed states, quantum correlators, measurement theory and interpretation.
PHYS 606Perimeter Scholars International Information and Data Analysis0.50 units
Probability, entropy, Bayesian inference and information theory. Maximum likelihood methods, common probability distributions, applications to real data including Monte-Carlo methods.
PHYS 608Perimeter Scholars International Computation0.50 units
Common algorithms for ode and pde solving, with numerical analysis. Common tasks in linear algebra. Focus on how to write a good code, test it, and obtain a reliable result. Parallel programming.
PHYS 609Perimeter Scholars International Conformal Field Theory0.50 units
This course is an introduction to the key ideas and techniques of conformal field theories. These theories play a central role In the study of phase transitions in statistical physics and condensed matter systems, as well as in string theory. Conformal field theories provide a theoretical laboratory in which the constraints imposed by symmetries allow for the exact solution of field theories, which have found important applications in both physics and mathematics.
PHYS 610Perimeter Scholars International Mathematics Physics0.50 units
This course will include the study of Perturbation Theory (Regular and Singular) Speeding Up Convergence: Shanks Transformations and Richardson Extrapolation Taylor Series, Fourier Series and the Gibbs Phenomenon Using Diveregent Series: Generalised Summation Analytic Continuation, Riemann Surfaces and Branch Points Continued Functions and Pade Approximants Steiltjes Functions, the Herglotz Property and the Carleman Bound Feynman Diagrams.
Theories of Condensed Matter Physics emphasizing the consequences of broken symmetries and the resulting collective modes which emerge, including broken translational symmetry and phonons, broken spin rotational symmetry and magnons, electronic properties of normal metals, and broken U(1) gauge symmetry in superconductors, excitations above the gap and collective modes in superconductors.
PHYS 612Perimeter Scholars International Classical Physics0.50 units
This is a theoretical physics course that aims to review the basics of theoretical mechanics, special relativity, and classical field theory, with the emphasis on geometrical notions and relativistic formalism.
PHYS 621Perimeter Scholars International Cosmology0.25 units
FRW metric, Hubble expansion, dark energy, dark matter, CMB. Thermodynamic history of early universe. Growth of perturbations, CDM model of structure formation and comparison to observations, cosmic microwave background anisotropies, inflation and observational tests.
PHYS 622Perimeter Scholars International Standard Model0.25 units
Application of Yang-Mills theory to particle physics, QCD and its tests in the perturbative regime, theory of weak interactions, precision tests of electroweak theory, CKM matrix and flavour physics, open questions.
PHYS 623Perimeter Scholars International String Theory0.25 units
Superstring spectrum in 10d Minkowski, as well as simple toroidal and orbifold compactifications. T-duality, D-branes, tree amplitudes. Construct some simple unified models of particle physics. Motivate the 10- and 11-dimensional supergravities. Simple supergravity solutions and use these to explore some aspects of AdS/CFT duality.
PHYS 624Perimeter Scholars International Mathematical Physics Topics0.25 units
Differential forms, de Rham cohomology, differential topology and characteristic classes, monopoles and instantons, Kahler manifolds, Dirac equation, zero modes and index theorems.
PHYS 625Perimeter Scholars International Supersymmetry0.25 units
The following topics will be discussed: The Lorentz Group: Properties and Representations; Manipulating Spinors; Supersymmetry Algebra and Representations; Superfields and Superspace; 4d Supersymmetric Lagrangians; Supersymmetry Breaking; Constructing the MSSM; Collider Phenomenology of Supersymmetric Theories; and Dark Matter.
PHYS 650Perimeter Scholars International Explorations in Quantum Gravity0.25 units
This course will introduce the students to the basic techniques and results of the field of loop quantum gravity. Possible topics include: 1) The Ashtekar variables and the Hamiltonian formalism; 2) The Plebanski action for general relativity; 3) The Hilbert space of loop quantum gravity and basic operators such as the area and volume operators; 4) Spin foam models; 5) Group field theory; 6) Quantum black hole horizons.
Review of formalism of nonrelativistic quantum mechanics including symmetries and invariance. Approximation methods and scattering theory. Elementary quantum theory of radiation. Introduction to one-particle relativistic wave equations.
Concepts of relativistic quantum mechanics, elementary quantum field theory, and Feynman diagrams. Application to many particle systems. Students who have not taken PHYS 701 but have an equivalent background in Quantum Mechanics may seek the instructor's consent to register in this course.
PHYS 703Introduction to Quantum Field Theory0.50 units
Review of relativistic quantum mechanics and classical field theory. Quantization of free quantum fields (the particle interpretation of field quanta). Canonical quantization of interacting fields (Feynman rules). Application of the formalism of interacting quantum fields to lowest-order quantum electrodynamic processes. Radiative corrections and renormalization.
Statistical basis of thermodynamics; microcanonical, canonical and grand canonical ensembles; quantum statistical mechanics, theory of the density matrix; fluctuations, noise, irreversible thermodynamics; transport theory; application to gases, liquids, solids.
Phase transitions. Fluctuation phenomena. Kubo's theory of time correlation functions for transport and spectral properties; applications selected from a variety of topics including linearized hydrodynamics of normal and superfluids, molecular liquids, liquid crystals, surface phenomena, theory of the dielectric constant, etc. Students who have not taken PHYS 704 but have an equivalent background in Statistical Physics may seek the instructor's consent to register in this course.
Maxwell's equations and conservation laws; accelerated point charges and electromagnetic radiation; multipole expansions; electromagnetism and special relativity; selected applications.
Introduction to group theory; symmetry, the group concept, representation theory, character theory. Applications to molecular vibrations, the solid state, quantum mechanics and crystal field theory.
Emphasis on atomic structure and spectroscopy. Review of angular momentum, rotations, Wigner-Eckart theorem, n-j symbols. Energy levels in complex atoms, Hartree-Fock theory, radiative transitions and inner shell processes. Further topics selected with class interest in mind, at least one of which to be taken from current literature.
Angular momentum and the rotation of molecules; introduction to group theory with application to molecular vibrations; principles of molecular spectroscopy; spectra of isolated molecules; intermolecular interactions and their effects on molecular spectra; selected additional topics (e.g., electronic structure of molecules, experimental spectroscopic techniques, neutron scattering, correlation functions, collision induced absorption, extension of group theory to molecular crystals, normal coordinate analysis, etc.).
PHYS 717Intermediate and High Energy Physics0.50 units
Strong, electromagnetic and weak interactions. Isospin, strangeness, conservation laws and symmetry principles. Leptons, hadrons, quarks and their classification, formation, interactions and decay.
Physical properties of atomic liquids; distribution functions and equilibrium properties, elementary perturbation theories and integral equation theories; simple metals, simple computer simulation; viral expansions and thermodynamic derivatives of g(r); experimental determination of g(r).
A modern approach to the quantum many-body problem from the perspective of condensed matter physics. Low energy effective theories, continuum field theories, and lattice models. Phases and phase transitions in the path integral formulation of bosons, fermions and quantum spins. Quantum critical points, topological phases, gauge theories, and connections to quantum information.
Optoelectronic component fabrication, light propagation in linear and nonlinear media, optical fiber properties, electro-optic and acousto-optic modulation, spontaneous and stimulated emission, semiconductor lasers and detectors, noise effects in fiber systems.
PHYS 751Clinical Applications of Physics in Medicine0.50 units
This course provides an overview of the application of physics to medicine. The physical concepts underlying the diagnosis and treatment of disease will be explored. Topics will include general imaging principles such as resolution, intensity and contrast; x-ray imaging and computed tomography; radioisotopes and nuclear medicine, SPECT and PET; magnetic resonance imaging; ultrasound imaging and radiation therapy.
Physical methods of determining macromolecular structure: energetics, intramolecular and intermolecular forces, with applications to lamellar structures, information storage, DNA and RNA, recognition and rejection of foreign molecules.
PHYS 763Independent Project in Quantum Technology0.50 units
A research project in any area of Quantum Technology approved by the course co-ordinator(s). The student is required to present a summary of the project orally and to submit a written report.
Review of basics of quantum information and computational complexity; Simple quantum algorithms; Quantum Fourier transform and Shor factoring algorithm: Amplitude amplification, Grover search algorithm and its optimality; Completely positive trace-preserving maps and Kraus representation; Non-locality and communication complexity; Physical realizations of quantum computation: requirements and examples; Quantum error-correction, including CSS codes, and elements of fault-tolerant computation; Quantum cryptography; Security proofs of quantum key distribution protocols; Quantum proof systems. Familiarity with theoretical computer science or quantum mechanics will also be an asset, though most students will not be familiar with both.
At the Director's discretion, a PhD or MSc student may receive course credit for a term of specialized studies at another institution. Formal evaluation is required.
PHYS 782Fundamentals of Astrophysics II: Observational Techniques and Data Analysis0.50 units
Astronomical observations, including telescopes and instrumentation, data processing and calibration, photometry, astrometry and spectroscopy. Measurement of luminosity functions, spectral energy distributions and other fundamental astrophysical quantities. Data analysis techniques: statistical modelling, hypothesis testing, Bayesian analysis, selection effects, correlations, archives and databases.
PHYS 784Advanced techniques in General Relativity and Applications to Black Holes0.50 units
Review of elementary general relativity. Timelike and null geodesic congruences. Hypersurfaces and junction conditions. Lagrangian and Hamiltonian formulations of general relativity. Mass and angular momentum of a gravitating body. The laws of black-hole mechanics.
PHYS 785Introduction to Quantum Field Theory for Cosmology0.50 units
Introduction to scalar field theory and its canonical quantization in flat and curved spacetimes. The flat space effects of Casimir and Unruh. Quantum fluctuations of scalar fields and of the metric on curved space-times and application to inflationary cosmology. Hawking radiation.
PHYS 786Introduction to General Relativity with Applications to Cosmology0.50 units
Introduction to the differential geometry of Lorentzian manifolds. The priniciples of general relativity. Causal structure and cosmological singularities. Cosmological space-times with Killing vector fields. Friedmann-Lemaitre cosmologies, scalar, vector and tensor perburbations in the linear and nonlinear regimes. De Sitter space-times and inflationary models.
Friedmann-Robertson-Walker metric and dynamics; big bang thermodynamics; nucleosynthesis; recombination; perturbation theory and structure formation; anisotropies in the Cosmic Microwave Background; statistics of cosmological density and velocity fields; galaxy formation; inflation.