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Please note - Swinburne University of Technology

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2D polar coordinates<br />

Definitions: Graphs <strong>of</strong> equations; transformation to and from<br />

Cartesian coordinates.<br />

Complex numbers<br />

Definition and arithmetic: polar form; de Moivre's theorem and<br />

exponential notation.<br />

Ordinary differential equations<br />

General and particular solutions. First order equations <strong>of</strong><br />

separable, linear and homogeneous types. Second order linear<br />

equations with constant coefficients. Applications. Numerical<br />

methods <strong>of</strong> solution.<br />

Vector functions<br />

Calculus <strong>of</strong> vector functions <strong>of</strong> one variable with application to<br />

displacement, velocity and acceleration and to mechanics.<br />

Equations to lines and planes, gradient <strong>of</strong> a scalar field,<br />

directional derivative.<br />

Functions <strong>of</strong> many variables<br />

Partial differentiation and applications: differentials and<br />

approximations; optimisation and applications (including least<br />

squares) with first and second derivative tests.<br />

Data presentation and analysis<br />

Frequency distributions: tabulation; graphical presentation;<br />

measures <strong>of</strong> central tendency and <strong>of</strong> dispersion; measures <strong>of</strong><br />

association.<br />

Probability<br />

Definitions and concepts <strong>of</strong> probability: calculation using<br />

addition and product-rules; conditional probability and<br />

independence.<br />

Probability distributions: discrete variates, including binomial,<br />

Poisson and hypergeometric distributions; continuous variates,<br />

including normal distribution; mean and variance.<br />

Introduction to hypothesis tests and confidence intervals for<br />

means and correlation coefficients using the t distribution.<br />

Textbooks<br />

Anton, H., Cakulus with Analytic Geometry. 4th edn, New York,<br />

Wiley, 1992<br />

Prescribed calculator<br />

Texas Instruments Advanced Scientific TI-82 Graphics Calculator<br />

~~2100 Applied Statistics<br />

8 credit points<br />

No. <strong>of</strong> hours per week: three hours<br />

Assessment: testdexamination and assignments<br />

Subject description<br />

lntroduction to health statistics: morbidity and mortality, vital<br />

statistics, standardisation, life tables.<br />

Probability: concepts and basic formulas. Probability<br />

distributions: discrete, includinq binomial and Poisson;<br />

continuous, including normal. Sampling distributions <strong>of</strong> mean,<br />

variance and proportion.<br />

Estimation <strong>of</strong> means, variances and proportions from single<br />

samples. Tests <strong>of</strong> hypotheses in means, variances and<br />

proportions; comparisons <strong>of</strong> two groups and <strong>of</strong> several groups<br />

(analysis <strong>of</strong> variance). lntroduction to experimental design. Chisquared<br />

tests on goodness <strong>of</strong> fit.<br />

Correlation and regression. Selected non-parametric methods.<br />

lntroduction to epidemiology: types <strong>of</strong> study; measures <strong>of</strong> risk<br />

and <strong>of</strong> association.<br />

~~3400 Mathematical Methods<br />

8 credit points per semester<br />

No. <strong>of</strong> hours per week: three hours<br />

Prerequisite: SMI 200 or SM1215<br />

Assessment: testdexaminations and assignments<br />

Subject description<br />

Linear algebra and vectors<br />

Matrices and matrix algebra. Systems <strong>of</strong> linear equations:<br />

Guassian elimination; procedures for numerical solution by<br />

direct or iterative methods, (Jacobi and Gauss-Seidel),<br />

transformation matrices.<br />

Real analysis<br />

Partial differentiation, chain rule, approximations. Application<br />

to maximum and minimum problems constrained optima and<br />

Lagrange multipliers. Change <strong>of</strong> variable. Multiple integrals.<br />

Applications <strong>of</strong> single, double and triple integrals. Jacobians.<br />

Surface integrals. Fourier series <strong>of</strong> general periodic functions.<br />

Laplace transforms. Use <strong>of</strong> tables. Partial differential equations,<br />

solution via separation <strong>of</strong> variables (Fourier series).<br />

Vector analysis<br />

Basic vector manipulation including calculus <strong>of</strong> vector<br />

functions. Space curves, Serret-Frenet formulas. Special<br />

emphasis on gradient <strong>of</strong> a scalar field, directional derivative,<br />

divergence and curl <strong>of</strong> a vector field. Line, surface and volume<br />

integrals. Field theory.<br />

Complex analysis<br />

Algebra and geometry <strong>of</strong> complex numbers. Functions <strong>of</strong> a<br />

complex variable. Elementary functions such as polynomial,<br />

exponential, trigonometric, hyperbolic, logarithm and power.<br />

Differentiability and Cauchy-Reimann equations. Harmonic<br />

functions. Contour integration, Cauchy integral and residue<br />

theorems. Evaluation <strong>of</strong> definite integrals. Conformal mapping<br />

and applications.<br />

Random processes<br />

Review <strong>of</strong> probability, Markov chains, Poisson processes, birthdeath<br />

processes, Chapman-Kolmogorov equations. Steady<br />

state probabilities. Simple queueing processes.<br />

Modern algebra with applications<br />

Groups, rings fields (including Galois fields). Vector spaces,<br />

polynomials with binary coefficients. Linear block codes, parity<br />

check matrices and standard arrays. Cyclic codes, generator<br />

polynomials. Hamming codes.<br />

Prescribed text<br />

Semesters 1 and 2<br />

Boas, M.L. Mathematical Methods in the Physical Sciences. 2nd edn,<br />

New York, Wiley, 1983<br />

Semester 2 only<br />

Hill, R. A First Course in Coding Theory. Oxford, Oxford <strong>University</strong> Press,<br />

1990<br />

~~3415 Mathematical Methods<br />

8 credit points for semesters one and two<br />

No. <strong>of</strong> hours per week: three hours<br />

Prerequisite: SM 1200 or SM 121 5<br />

Assessment: tests/examinations and assignments<br />

Subject description<br />

Linear algebra and vectors<br />

Matrices and matrix algebra. Systems <strong>of</strong> linear equations:<br />

Guassian elimination; procedures for numerical solution by<br />

direct or iterative methods, (Jacobi and Gauss-Seidel),<br />

transformation matrices.

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