Preparation for the final exam of Math 102 (2009) (Formulas for some basic trig idendentities will be prodived. No calculator is allowed.) ========================================================================== I. Problems covered: HW#1-HW#13 all the assigned problems. II. Important materials for your study: 1. Math Club study guides: Math 102 and Math 100/180. 2. Previous final exam(s) posted the Math102 websites and at http://www.math.ubc.ca/~yxli/m102_01_final.pdf (Do not expect to get the same type of problems in this year!!!) 3. Lecture notes, online notes, reference book(s) III. Materials covered: (All listed will be tested. Those with an asterisk carry a heavier weight!) 1. Functions (1) Definition of a function and its inverse (2)* Composite functions (how to recognize them under different situations) (3) Elementary functions and properties: power, polynomial, exp, log, trig (4) Relation between the graph of f(x) and that of a shifted form of f(x) (5) Odd and even functions 2.* Derivatives (1) Definition and evaluation of some simple limits (2) Secant lines and tangent lines (3) Average rate of change and instantaneous rate of change (4) Displacement-velocity-acceleration (5) Rules for differentiation: product, quotient, and chain rules (6) Implicit differentiation 3.* Applications (1) Graph sketch: (i) Analytic: f(x) ==> graph (ii) Visual estimate: graph of f(x) <==> graph of f'(x) (2) Optimization (3) Related rates (4) Simple models using differential equations (i) Newton's law of cooling (ii) Terminal speed (iii) Infusion/mixing models (iv) Population models 4. Differential equations (1) Basic concepts (i) Order and arbitrary constants in the general solution (ii)* Check if a function is a solution of a DE (How to?) (iii) Initial conditions (How to find them? How many?) (iv) IVP: initial value problems (2)* Simple exponential growth/decay (3) Harmonic oscillations (4)* Exponential approach to a nonzero steady state (5)* Qualitative method: (i) Steady state (Definition and how to find?) (ii) Slope filed and the direction of solution flow (iii) Stability of a steady state (iv) Long time behaviour and steady state(s) 5.* Approximation methods (1) Linear (tangent line) approximation (2) Newton's method for finding zeros(roots), intersection points, critical points, etc.