Difference between revisions of "Pre-lecture videos"
From UBCMATH WIKI
| Line 146: | Line 146: | ||
|Optimal Foraging. | |Optimal Foraging. | ||
| − | |- class=" | + | |- class="NewWeek OddWeek" |
| − | | | + | |id="week6"|Week 6 |
|[http://youtu.be/MB5zGQuDK5s],[http://slesse.math.ubc.ca/Teaching/Screencasts/LinearRegression1.mov],[http://slesse.math.ubc.ca/Teaching/Screencasts/LinearRegression2.mov] | |[http://youtu.be/MB5zGQuDK5s],[http://slesse.math.ubc.ca/Teaching/Screencasts/LinearRegression1.mov],[http://slesse.math.ubc.ca/Teaching/Screencasts/LinearRegression2.mov] | ||
|Least Squares - finding the mean of a data set. See also the [[Course notes/Fitting data - least squares| Fitting data]] supplement to the course notes. | |Least Squares - finding the mean of a data set. See also the [[Course notes/Fitting data - least squares| Fitting data]] supplement to the course notes. | ||
Revision as of 08:10, 4 October 2015
| Video link | Video contents | |
|---|---|---|
| Week 1 | [1] | Power functions - when is $x^n>x^m$ and where do they intersect. Introduction to even and odd functions. |
| [2] | Cell size and nutrient balance: cell volume and area and the role of power functions in describing cell size limitations. | |
| [3] | Sketching simple polynomials (y=x^3-ax). | |
| Week 2 | [4] | Approximating a rational function near the origin. |
| [5] | Approximating a rational function for large x. Introduction to Hill functions. | |
| [6] | Sketching Hill functions by hand and by Desmos (see Hill functions demo). Comparing Hill functions with different parameter values. | |
| See video [1] above for an introduction to even and odd functions and also Sec 1.2.3 and Appendix C.D of the course notes. | ||
| [7] | Average rate of change and secant lines. Instantaneous rate of change. | |
| [8] | Definition of the derivative. | |
| [9] | Continuity - definition and examples of three types of discontinuities. | |
| [10] | Examples of computing the derivative of a function from the definition of the derivative. | |
| Week 3 | [11] | Derivatives: analytic, and geometric (zoom in on a point). Sketching $f'(x)$ given $f(x)$ (intro). |
| [12] | Using a spreadsheet to graph a function and its (approximate) derivative. | |
| [13] | Derivatives of polynomials. | |
| [14] | Rules of differentiation: Antiderivatives of polynomials. | |
| [15] | Rules of differentiation: Product and quotient rules. | |
| Week 4 | [16] | Equation of a Tangent line. |
| [17] | Generic Tangent line and intro to Newton's method. | |
| [18] | Tangent lines and linear approximation. | |
| [19] | Introduction to Newton’s method - how it works and the formula for successive estimates. | |
| [20] | Introduction to Newton’s method - how to carry it out with a spreadsheet. | |
| [21] | Introduction to Newton’s method - how to choose a good $x_0$. | |
| Week 5 | [22] | Increasing, decreasing and critical points. |
| [23] | Concavity and inflection points. | |
| [24] | Largest area of a rectangle inscribed in a semicircle | |
| [25] | Absolute Maximum and Minimum Values of a Function - Calculus I | |
| Week 6 | [26] | Kepler's Wedding - A wine optimization problem. (Blooper alert: want to get most wine for given budget) |
| [27] | Optimal Foraging. | |
| Week 6 | [28],[29],[30] | Least Squares - finding the mean of a data set. See also the Fitting data supplement to the course notes. |
| See Oct 10 | Least Squares - finding the best fitting line y=ax through a set of data points. | |
| [31], [32] | Chain Rule: examples, applications to optimization problems. | |
| Week 8 | [33][34] | More Chain Rule: Related Rates and Implicit differentiation. |
| [35] | Exponential functions: intro and motivation, derivative of exponential functions. | |
| [36] | Exponential functions: intro and motivation, derivative of exponential functions. | |
| [37] | Inverse functions and logarithm, applications of logs. | |
| Week 9 | [38] | Exponential growth and decay, intro to differential equations, population growth and/or other examples. |
| [39] | Exponential growth and decay, intro to differential equations, population growth and/or other examples. | |
| [40] | Exponential growth and decay, intro to differential equations, population growth and/or other examples. | |
| [41] | Solving differential equations of the type $dy/dt=a-by$. | |
| [42] | Solving differential equations of the type $dy/dt=a-by$. | |
| LEK | Newton's Law of Cooling (Murder Mystery example). | |
| Week 10 | Complete and/or review above topics. | |
| [43], [44] | Solving differential equations approximately using Euler's Method. | |
| [45] | Geometry of change: (I) Slope fields. | |
| [46] | Geometry of change: (II) State space. This one is more relevant to the pre-lecture questions but you should watch both. | |
| Week 11 | [47] | Geometry of change: (I) Slope fields. |
| [48] | Geometry of change: (II) State space. | |
| [49] | The Logistic equation (state space and slope field). | |
| [50] | The Logistic equation (state space and slope field). | |
| [51] | Disease dynamics | |
| [52] | Disease dynamics | |
| Week 12 | Review of differential equations and/or complete above topics. | |
| [53], [54] | Introduction to Trigonometric Functions and review of trigonometric identities. | |
| [55] (LEK),EC | Trigonometric Functions and cyclic processes, phase, amplitude, etc. (fitting a sin or cos to a cyclic process), Inverse trig functions. | |
| Week 13 | [56] | Derivatives of trig functions, related rates examples. |
| [57][58] | The Escape Response and trigonometric related rates. | |
| Second order ODEs. Complete and/or review trig. |
