Module title & Course code Mathematics with Maple MAS100 Lecturer Dr Simon Willerton Course description University course content 0. Introduction to Maple Simple examples of the main capabilities of Maple. Expansion, factoring, collection of similar terms, simplification of algebraic fractions. Plotting graphs, controlling scales and axes, combining plots. Polar coordinates and curves given parametrically. Graphical solution of various problems. 1. Solving equations Various methods of solution, by hand or using Maple. Symbolic and numerical solutions. Problems with no solutions or many solutions. Using solutions in further calculations. In this course we learn to use a program called Maple, which is a very powerful tool for solving problems in mathematics. Maple will also be used, to varying extents, in many subsequent courses. In parallel with learning Maple, we will review and extend some topics from A-level. Using Maple we will be able to treat complex examples painlessly, look systematically for patterns, visualize our results graphically, and so gain new insights. A Level course content Module Further module only? C4 No FP2 Yes FP1 Yes It is unlikely students will have seen Maple before they will however have seen:Curves given parametrically Polar Coordinates Further maths students should be familiar with several different methods of solving equations: Solving equations using interval bisection, linear interpolation and the Newton-Raphson process. 2. Special functions Exponentials and logarithms. Trigonometric and hyperbolic functions. Identities between such functions, and how to prove them. Primary special functions sinx, cosx and tanx C2 No C3 No C3 No FP3 Yes FP2 No FP1/FP2 Yes C2 No tan2x + 1 = sec2x, 1 + cot2x = cosec2x, double angle for sin,cos and tan and addition formulae for sin,cos and tan C3 No Special Values for Trig Functions All students should be familiar with these. C2 No x lnx, e , arcsin, arccos and arctan Secondary special functions sec, csc, cot sinh, cosh, tanh, sech, csch, coth, arcsinh, arccosh, arctanh. 𝑒𝑥 = 1 + 𝑥 + 𝑥2 +⋯ 2! Complex numbers Trig Identities Sin2x + cos2x = 1 tanx=sinx/cosx Students will probably not be familiar with Fourier Series as it does not feature on any A Level Maths module. 3. Differentiation The geometric and numerical meaning of differentiation. Derivatives of some standard functions. Rules for calculating derivatives. Implicit derivatives and higher-order derivatives. Students should have seen at least x2 differentiated from first principles but they do not need to prove this in any exam and so generally not much emphasis is placed on it. The product rule, the quotient rule, the chain rule, the logarithmic rule, inverse function rule, implicit differentiation and parametric differentiation should be covered by all students. C3/C4 No FP2 Yes FP3 Yes The power rule is covered in C1. 𝑒𝑥 = 1 + 𝑥 + 𝑥2 +⋯ 2! Special Functions – Students should be familiar with all the derivatives by the end of A level maths with the exception of: Differentiating hyperbolic functions – The derivatives for sinhx, coshx and tanhx are given to students in their formula books. It will be unlikely that any students will have seen differentiation with a complex variable such as cosx=cosh(ix) seen in Lecture 5. 4. Integration The meaning of integration. Integrals of some standard functions. Methods for finding integrals (by parts and by substitution). Students who have done A level should be familiar with all the standard integrals mentioned with the exception of: Hyperbolic functions and Inverse Trig Functions – This will only have been seen FP3 by students who have done further maths. All of the standard integrals listed in Lecture 7 are given to students in their formula books with the exception of: exp(x), sin(x), cos(x) which students learn sin2(x), cos2(x) which students have to show how to integrate using the double angle formulae for cos2x ln(x) which students can be asked to show using integration by parts. Students are asked to differentiate ax in C3 but are not actually expected to be able to show they can integrate ax. Lecture 8 – It is unlikely students will have be familiar with the curve shape of exponential oscillation and will be unfamiliar with the term PEO. 5. Taylor series Approximation by polynomials and the relation with higher derivatives. Calculation of Taylor series. FP2 This will only have been seen by students who have done further maths. Students are given the Taylor’s series for: f(x), f(x + a), ex , ln(1 + x), sinx, cosx, arctanx, sinhx,coshx and arctanhx in their formula books. Students may not have considered the subtleties as to what functions have a Taylor’s series. Note: The notation O(x7) will probably be unfamiliar to students. Even and Odd functions is not covered by every exam board (Hyperbolics are FP3)