Course description
Mathematics Honours; B.Sc., B.A.
Normally a student is admitted to an Honours program after completing a minimum of 12 credits in Mathematics courses with an average of at least 70% and having achieved an average of 65% in all courses taken at Bishop's.
To continue in an Honours program the student must obtain an average of at least 70% in Mathematics courses in each academic year.
In order to graduate with a Mathematics Honours degree, the student must have an overall average of 70% in all Mathematics courses.
U1: MAT 105a, MAT 106a, MAT 107b, MAT 108a, MAT 109b, MAT 115b
U2 and U3: MAT 210a, MAT 213a, MAT 215a, MAT 216b, MAT 217b, MAT 221a, MAT 222b, MAT 275b, MAT 331b, four Mathematics courses at the 300 or 400 level including at least two at the 400 level.
The degree will also require CSC111ab and 9 credits of Mathematics options not including MAT 191a or MAT 192b. B.Sc. students must include at least 9 additional Science credits among their options.
Total credits:
B.Sc.: 66 Mathematics, 4 Computer Science, 9 Science options, 12 options.
B.A.: 66 Mathematics, 4 Computer Science, 21 options.
Mathematics 100a Excursions in Modern Mathematics 3-3-0
An introduction to modern applied mathematics: social choice, management science, growth, symmetry, and descriptive statistics. Not intended as a numeracy course, nor for the remediation of algebraic shortcomings: computational complexity is minimal, and math prerequisites are absent. Instead, the methodology of mathematics is addressed: the use of unambiguous language and simplification to model practical problems, the types of answers the discipline can provide, and the notions of generalization and "open" problems. The course will allow the student to develop a sense of the nature of mathematics as a discipline, and an appreciation of its role in the modern world.
Note: Science students must enroll in Mathematics 110 instead of this course. Students may only receive credit for one of MAT 100 or MAT 110.
Mathematics 101b Further Excursions in Mathematics 3-3-0
Further topics in modern applied mathematics. A continuation of the style and subjects in Mathematics 100, this course is also not intended to redress deficiencies in numeracy, nor does it have any mathematical prerequisites. Topics may include growth models, game theory, linear programming, fractal geometry, coding theory, non-Euclidean geometry and selected current readings.
Note: Science students must enroll in Mathematics 111b instead of this course. Students may only receive credit for one of MAT 101 and MAT 111.
Mathematics 104a History of Mathematics 3-3-0
This course is designed to help history, philosophy, and education students come to a deeper understanding of the mathematical side of culture by means of writing short essays. Mathematics majors acquire a philosophical and cultural understanding of their subject by means of doing actual mathematics problems from different eras. Topics may include perfect numbers, Diophantine equations, Euclidean construction and proofs, the circle area formula, the Pell equation, cubic equations, the four square theorem, quaternions, and Cantor's set theory. The philosophical themes of infinity and Platonism recur repeatedly throughout the course.
Mathematics 105a Introduction to Discrete Mathematics 3-3-0
Combinatorics. Propositional logic. Induction. Sets. Quantifiers. Recursion relations.
Mathematics 106a Advanced Calculus I 3-3-0
Sequences and series. Taylor series and polynomials. Power Series. Functions of 2 and 3 variables. Partial Derivatives, directional derivatives, differentials. Lagrange multipliers. Multiple integrals and applications.
Prerequisite: Mathematics 192b or a grade of at least 80% in Mathematics 199b.
Mathematics 107b Advanced Calculus II 3-3-0
Vector-valued functions, parametric curves, arc length, curvature. Change of Variables and Jacobians. Line intergrals. Surface integrals. Green's theorem. Divergence theorem. Stoke's theorem. Differential operator.
Prerequisite: Mathematics 106a, Mathematics 108a
Mathematics 108a Matrix Algebra 3-3-0
Operations on matrices, transpose and inverse. Systems of linear equations. Determinants. Linear transformations. Eigenvalue and eigenvectors. Vector spaces. Bases and dimension. Rank and nullity. Applications.
Mathematics 109b Linear Algebra 3-3-0
Diagonalization. Inner product spaces. Gram-Schmidt process. Change of basis. Complex vector spaces. Systems of differential equations. Applications.
Prerequisite: Mathematics 108a
Mathematics 110a Excursions in Modern Mathematics 3-3-0
This is the same course as Mathematics 100 but it is intended that science students would enroll in this course and complete assignments that are more appropriate to their needs.
NOTE: Students may only receive credit for one of MAT 100 or MAT 110.
Mathematics 111b Further Excursions in Mathematics 3-3-0
This is the same course as Mathematics 101b but it is intended that science students would enroll in this course and complete assignments that are more appropriate to their needs.
Note: See Mathematics 101b. Students may only receive credit for one of MAT 101 and MAT111.
Mathematics 114b Modern Geometry: Euclidean to Fractal 3-3-0
Particularly recommended for elementary and high-school teachers. Euclidean, elliptic and hyberbolic geometries, and applications: modern graphics, fractal images and the work of analytical artists like M.C. Escher.
This course must be taken concurrently with Mathematics 184b.
Prerequisite: Mat 105
Corequisite: Mat 184b
Mathematics 115b Further Discrete Mathematics 3-3-0
Complex Numbers. More recurrence. Equivalence relations. Relations and functions. Graph theory. Cardinality.
Prerequisite: Mathematics 105a
Mathematics 125a Number Theory 3-3-0
A classical discipline, number theory has become the spectacularly successful language of modern aryptography and coding theory. This course is a gently introduction to the classical theory and modern applications. Topics may include: unique factorization and congruences, group of integers module n and its units, Fermat's little theorem, Fermat's last theorem, Euler's function, Wilson's theorem, Chinese remainder theorem, quadratic repricocity, Gaussian integers.
Prerequisite: Mathematics 105
Mathematics 172a Mathematical Economics I 3-3-0
Application of matrix algebra and multivariate calculus to model-building and problem- solving in Economics
Prerequisites: Economics 102, 103
See EMA262A
Students may not take this course for credit if they have received credit for EMA262a.
Mathematics 177a Introduction to Mechanics 3-3-0
Statics: equilibrium of bodies subject to many forces. Kinematics; rectilinear, plane, circular and simple harmonic motion. Dynamics: conservation of mechanical energy and momentum; place and circular motion of particles; rotation of macroscopic bodies. Elasticity: elastic moduli. Hydrostatics and hydrodynamics.
Prerequisite: Physics 191a or equivalent
Corequisite: Mathematics 106a
See Physics 117a
Students may not take this course for credit if they have received credit for Physics 117a.
Mathematics 184b Modern Geometry by Laboratory Explorations 1-0-3
Geometry explorations using Geometer's Sketchpad software. Projects will enhance the learning of the curriculum of the course MAT 114 which must be taken concurrently.
Corequisite: Mat 114b
Mathematics 190ab Precalculus Mathematics 3-3-0
Review of algebra. Sets, Functions, graphs. Slope and equation of a straight line. Equation of a circle. Exponential and logarithm functions with applications. Arithmetic and geometric progressions. Permutations and Combinations.
Students who have received credit for an equivalent course taken elsewhere may not register for this course.
Mathematics 191a Enriched Calculus I 3-3-0
Elementary functions, limits, continuity. The derivative, differentiability, mean value theorem. Maxima and minima, Fermat's theorem, extreme value theorem, related rates, L'Hospital's rule. Applications. Riemann sums, definite integral. Emphasis is on an analytical understanding. This course must be taken concurrently with Mathematics 081a.
This course is for students who lack collegial Mathematics 103 or the equivalent.
This course is required for all students in Mathematics, Physics and Computer Science.
Students who have received credit for an equivalent course taken elsewhere may not register for this course.
Credit will be given for only one of Mathematics 191a, 193ab, and 198ab.
Mathematics 081a Enriched Calculus Laboratory I 1-0-3
A series of problems sessions and/or Calculus laboratory projects utilizing Computer Algebra Systems (CAS) technology. This course is designed to enhance the material covered in Mathematics 191a, and must be taken concurrently.
Mathematics 192b Enriched Calculus II 3-3-0
Area. The definite integral. The Fundamental Theorem of Calculus. Techniques of integration. Volumes, centers of mass, moments of inertia, arclength and other applications of integration. Mean value theorem for integrals. Emphasis is on analytical understanding.
This course must be taken concurrently with Mathematics 082b.
Prerequisite: Mathematics 191a or a grade of at least 70% in Mathematics 198a or 80% in Mathematics 193ab.
This course is for students who lack Collegial Mathematics NYB or the equivalent.
This course is required for all students in Mathematics, Physics and Computer Science.
Students who have received credit for an equivalent course taken elsewhere may not register for this course.
Credit will be given for only one of Mathematics 191a, 193ab, and 198a.
Mathematics 082b Enriched Calculus Laboratory II 1-0-3
A series of problems sessions and/or Calculus laboratory projects utilizing Computer Algebra Systems (CAS) technology. This course is designed to enhance the material covered in Mathematics 192b, and must be taken concurrently.
Prerequisite: Mathematics 191a
Mathematics 193ab Calculus I (for Business and Economics students) 3-3-0
Functions. Limits and continuity. Slope of tangent line. Derivative of a function. Derivatives of polynomial, exponential and logarithmic functions. Rules for sums, products, quotients. Chain rule. Maxima and minima. Introduction to integration: antiderivatives and area.
Pre or Co-requisite: Mathematics 190a, CEGEP Math NYA or the equivalent
Credit will be given for only one of Mathematics 191a, 193ab and 198ab.
Students who have received credit for an equivalent course taken elsewhere may not register for this course.
Mathematics 195ab Calculus II (for Business and Economics Students) 3-3-0
Review and extension of differentiation and integration. Implicit differentiation. Integration by substitution and parts. Separable first order differential equations. Riemann sums. Applications to areas, finance, etc. Introduction to matrix algebra.
Prerequisite: Mathematics 193b or CEGEP Math NYA or the equivalent.
Credit will be given for only one of Mathematics 192b, 195ab and 199b.
Students who have received credit for an equivalent course taken elsewhere may not register for this course.
Mathematics 198a Calculus I (for Life Sciences) 3-3-0
Elementary functions, limits, tangent line approximations. The derivative, and differentiation rules. Continuous optimization in one variable. Applications to Biology, Chemistry, Medicine and Environmental Science. The emphasis is on conceptual understanding and computational competency. This course must be taken concurrently with Mathematics 088ab.
This course is intended for students who lack collegial Mathematics NYA or the equivalent.
Students who have received credit for an equivalent course taken elsewhere may not register for this course.
Credit will be given for only one of Mathematics 191a, 193ab, and 198ab.
Mathematics 088a Calculus (for Life Sciences) Laboratory I 1-0-3
A series of problems sessions and/or Calculus laboratory projects utilizing Computer Algebra Systems (CAS) technology. This course is designed to enhance the material covered in Mathematics 198ab, and must be taken concurrently.
Mathematics 199b Calculus II (for Life Sciences) 3-3-0
The definite integral, area, integration by substitution and parts. Applications to Biology, Chemistry, Medicine and Environment Science. Separable and linear differential equations. The emphasis is on conceptual understanding and computational competency.
This course must be taken concurrently with Mathematics 089b.
Prerequisite: Mathematics 198ab or 191a or the equivalent.
This course is intended for students who lack collegial Mathematics NYB or the equivalent.
Students who have received credit for an equivalent course taken elsewhere may not register for this course.
Credit will be given for only one of Mathematics 192b, 195ab, and 199b.
Mathematics 089b Calculus (for Life Sciences) Laboratory II 1-0-3
A series of problems sessions and/or Calculus laboratory projects utilizing Computer, Algebra Systems (CAS) technology. This course is designed to enhance the material covered in Mathematics 199b, and must be taken concurrently.
Prerequisite: Mathematics 198ab or 191a or the equivalent.
Mathematics 210a Ordinary Differential Equations 3-3-0
Techniques for solving first and second order linear differential equations. Systems of first order equations. Power series solutions for second order equations including the method of Frobenius. Various applications of differential equations.
Prerequisite: Mathematics 106
See Physics 270
Students may not take this course for credit if they have received credit for Physics 270
Mathematics 211b Mathematical Methods of Physics 3-3-0
Discussion of series solutions in connection with the gamma function and Bessel, Legendre and hypergeometric functions. Laplace transform with applications. Elementary trigonometric Fourier series and boundary value problems. Certain partial differential equations of physics.
Prerequisites: Mathematics 210a
See Physics 271
Students may not take this course for credit if they have received credit for Physics 271
Mathematics 213a Introduction to Probability 3-3-0
Discrete and continuous distributions. Moments, mean and variance. Moment generating functions. Multivariate distributions. Laws of large numbers. Sampling distributions. Central Limit Theorem.
Prerequisite: Mathematics 106a
Mathematics 214b Introduction to Mathematical Statistics 3-3-0
Further sampling distributions: Chi-square, t and F. Estimation, confidence intervals. Hypothesis testing, theory and practice. Regression and correlation. Analysis of Variance. Nonparametric methods.
Prerequisite: Mathematics 213a
Mathematics 215a Real Analysis I 3-3-0
Real number system. Completeness theorem. Sequences of real numbers. Bolzano- Weierstrass Theorem. Cauchy sequences. Series of real numbers. Limits. Continuous functions. Differentiation. Mean-Value Theorem. L'Hospital's rule. Riemann integration. Fundamental Theorem of Calculus.
Prerequisite: Mathematics 107b.
Mathematics 216b Real Analysis II 3-3-0
The generalized Riemann interal (improper integrals). Sequences and series of functions. Pointwise and uniform convergence. Power series. Taylor series. Classical theorems (integration, differentiation, Weierstrass M-test. Cauchy-Hadamard theorem). Equicontinuity. Ascoli-Arzela theorem. Stone-Weierstrass approximation theorem).
Prerequisite: Mathematics 215a
Offered alternately with Mathematics 217b
Mathematics 217b Complex Analysis 3-3-0
Sequences and series of complex numbers. Functions. Limits. Continuous functions. Analytic functions. Cauchy-Riemann equations. Contour integration. Cauchy's theorem. Cauchy integral formula. Taylor and Laurent series. Singularities and residues.
Prerequisite: Mathematics 215a.
Offered alternately with Mathematics 216b
Mathematics 221a Introduction to Modern Algebra I 3-3-0
Introduction to the theory of groups. Symmetries of a square. The dihedral groups. Cyclic groups, permutation groups. Isomorphisms, external and internal direct sums. Cosets and Lagrange's theorem. Factor groups.
Prerequisite: Mathematics 105ab, Mathematics 109b
Mathematics 222b Introduction to Modern Algebra II 3-3-0
Additional topics from group theory. Introduction to Ring Theory. Integral Domains and Fields. Factorization of Polynomials. Finite Fields. Introduction to Algebraic Coding Theory.
Prerequisite: Mathematics 221a
Mathematics 224 Cryptography 3-3-0
Cryptography is a key technology in electronic security systems. The aim of this course is to explain the basic techniques of modern cryptography and to provide the necessary mathematical background. Topics may include: the classical encryption schemes, perfect secrecy, DES, prime number generation, public-key encryption, factoring, digital signatures, quantum computing.
Prerequisites: Mathematics 105, 108
Professor Brüstle
Mathematics 225b Numerical Methods 3-3-0
Numerical techniques for problem solving in Mathematics, Computer Science and Physics. Error analysis, roots of equations, QR-algorithm, interpolation, Numerical approaches to differentiation, integration and solutions of differential equations.
Prerequisites: Computer Science 111ab. Mathematics 107, 108.
Note: See CSC 275 and Phy 275.
Students may not take this course for credit if they have received credit for Computer Science 275 or Physics 275.
Mathematics 226a Mathematical Problem Solving 3-3-0
A course designed to foster problem solving abilities in mathematics. New mathematical concepts will be introduced to the student through solving specific problems. Problems will be taken from Putnam and Mathematics Olympiad competitions and from actuarial examinations.
Prerequisites: Mathematics 107, 108
Mathematics 271b Econometrics II 3-3-0
Ordincary least-square estimation and hypothesis testing using matrix algebra. The topics include: generalised least squares estimation, distributed (eg. models, two-stage) least squares estimation, and the Granger causality test.
See EMA 361b
Students may not take this course for credit if they have received credit for EMA 361b.
Mathematics 272b Mathematical Economics II 3-3-0
The application of differential and difference equations, and mathematical programming, to model building and problem solving in Economics.
See EMA 362b
Students may not take this course for credit if they have received credit for EMA 362b.
Mathematics 275b Theoretical Aspects of Computer Science 3-3-0
The course will include several of the following topics: Computational models; Computational complexity; Finite-state machines; Context-free languages; Pushdown automata; Turing machines; Undecidable problems.
Prerequisite: Math 105
See Computer Science 305b
Students may not take this course for credit if they have received credit for Computer Science 305b.
Mathematics 277a Design and Analysis of Algorithms 3-3-0
This course is intended to make students familiar with most of the existing techniques for problem solving. It starts with an introduction to algorithms efficiency, solving recurrence relations and basic data structures. Then different techniques for algorithms design are discussed; the divide-and-conquer technique, the greedy technique and its applications to graph algorithms, dynamic programming, backtracking and genetic algorithms. At the end, students are briefly introduced to the vase area of "difficult" problems, or NP-complete.
Prerequisite: Computer Science 204 and Mathematics 105.
See Computer Science 217a.
Students may not take this course for credit if they have received credit for Computer Science 217a.
Mathematics 278b Advanced Mechanics 3-3-0
Dynamics of macroscopic bodies. Newtonian gravitation: planetary orbits; tides. Elasticity; the flexure of elastic bodies. Relativistic dynamics of particles. The Lagrangian and Hamilton's Principle.
Prerequisite: Physics 117a, Mathematics 210a
Offered alternate years
See Physics 218b
Students may not take this course for credit if they have received credit for Physics 218b.
Mathematics 279b Scientific Programming 3-3-3
This course is designed as an introduction to programming languages and environments suitable for the numerically intensive applications in the natural sciences and mathematics. Examples will be given to illustrate the use of Fortran in numerical calculations. Other examples will be tackled using the Maple language initially developed to handle problems in symbolic computation.
Prerequisite: CSC 204, Math 191, Math 192
See Computer Science 208b, Physics 278B
Students may not take this course for credit if they have received credit for Computer Science 208b or Physics 278b.
Mathematics 301b Vector Analysis 3-3-0
Algebra of vectors. Vector-valued functions. Vector differential and integral calculus. Theorems of Gauss, Green and Stokes. Differential forms. Differentiability in Rn. Inverse function theorem.
Prerequisite: Mathematics 107b.
Mathematics 302b Tensor Analysis 3-3-0
General curvilinear coordinates. Differential forms. Bilinear forms and tensors of rank two. Tensor algebra and tensor calculus.
Prerequisite: Mathematics 301a.
Mathematics 305b Calculus of Variations 3-3-0
Euler-Lagrange equations for constrained and unconstrained single and double integral variational problems. Parameter-invariant single integrals. General variational formula. The canonical formalism. Hilbert's independent integral. Hamilton-Jacobi equation and the Cavatheodory complete figure. Fields and the Legendre and Weierstrass sufficient conditions.
Prerequisites: Mat 107, Mat210
See Physics 276
Students may not take this course for credit if they have received credit for Physics 276
Mathematics 306b Differential Geometry 3-3-0
Curves in 3-space. Euclidean motions, surface theory. Introduction to differential manifold, Guassian and mean curvature, imbedding conditions. Geodesics, parallel transport and the Gauss-Bonet Theorem.
Prerequisite: Mat 107, Mat 210
Mathematics 321a Graph Theory 3-3-0
An introduction to the combinatorial, algorithmic and algebraic aspects of graph theory.
Prerequisite: Mat 105
Note: See CSC371. Students may not take this course for credit if they have received credit for CSC371.
Mathematics 331b Metric Spaces and Topology 3-3-0
Sets, functions, images and preimages. Topological spaces, metric spaces. Open and closed sets, accumulation points, continuous functions, homeomorphisms. Some topological properties, particularly connectedness and compactness.
Pre-requisite: Mathematics 215a, or consent of the instructor.
Mathematics 333b Infinite Abelian Groups 3-3-0
Structure of finite abelian groups, examples of infinite abelian groups, torsion and torsion- free groups, divisible groups, pure subgroups, algebraically compact groups, classification of torsion-free groups of rank 1. Generalizations of group concepts to modules over a principal ideal ring.
Prerequisite: Mathematics 221a, 222b
400 level courses are for Honours students only
Mathematics 450a, 451b Topics in Algebra I and II 3-3-0
A selection is made to suit the interests of students from such topics as: ring theory, introduction to homological algebra, introduction to group representations or commutative algebra.
Prerequisite: Mathematics 109b, 222b or consent of instructor.
Offered by arrangement.
Mathematics 452a Topics in Analysis I 3-3-0
Normed spaces, Banach and Hilbert spaces, Hilbert space operators, Normed algebras, Stone-Weierstrass theorem. Special function spaces.
Prerequisite: Mathematics 216b.
Mathematics 453b Topics in Analysis II 3-3-0
Theory of integration. Measurable functions, measures and integrable functions. Lebesque spaces. Models of convergence. Decomposition and generation of measures. Product measures.
Prerequisite: Mathematics 216b.
Offered by arrangement.
Mathematics 454a, 455b Topology Offered by arrangement.
Mathematics 456a Independent Studies I 3-0-0
Open to final year honours students by arrangement with the department.
Mathematics 457b Independent Studies II 3-0-0
See Mathematics 456a.
Cognate Courses:
Philosophy 151 may count as a cognate for the Honours or Major program.
