ENGR1180 - Engineering Mathematics I
|
Credits: 03 |
| Dr. Shanaz Wahid | email:Shanaz.Wahid@sta.uwi.edu |
| Mr. Oral Robertson | email:Oral.Robertson@sta.uwi.edu |
Differential Equations (Dawkins)
Note: the three Dawkins texts may also be obtained from Paul's Online Math Notes.
Week |
Topics |
References |
| 1 |
Plane and space vectors, vector equations of lines and planes, dot product, cross product | Sections 1.1-1.5 of Vector Calculus (Corral) |
| 2 |
Geometric interpretation of linear equations, Gaussian elimination, n-dimensional space, definition of a vector space | Pages 3-26, 126-135, 154-155, 183-184 of Linear Algebra (Dawkins) |
| 3 |
Span and subspace, linear dependence, basis, dimension, basic properties of matrices | Pages 193-228, 27-38 of Linear Algebra (Dawkins) |
| 4 |
Transpose, determinants, rank and its application to linear systems, matrix inversion by cofactors | Pages 43-52, 107-114 of Linear Algebra (Dawkins) |
| 5 |
Convergence of series, comparison and ratio tests, Maclaurin and Taylor series | Pages 179-201, 211-218, 230-234, 254, 269-278 of Calculus II (Dawkins) |
| 6 |
Definition and properties of a complex number, complex roots of a quadratic equation, complex numbers as vectors, modulus and argument, product and quotients | Units 6.1, 6.2, 6.3 of Just the Maths (Hobson) |
| 7 |
De Moivre’s theorem, exponential form, hyperbolic functions, loci in the Argand diagram | Units 6.4, 6.5, 6.6 of Just the Maths (Hobson) |
| 8 |
Definitions, direction fields, linear first order differential equations, separable differential equations | Pages 2-18, 21-44 of Differential Equations (Dawkins) |
| 9 |
Modelling with first order equations, exact equations, numerical approximations, homogeneous second order equations with constant coefficients | Pages 77-84, 45-55, 94-101, 104-112 of Differential Equations (Dawkins) |
| 10 |
Fundamental solutions, complex and repeated roots of the characteristic equation, reduction of order, method of undetermined coefficients | Pages 113-130, 137-155 of Differential Equations (Dawkins) |
| 11 |
Variation of parameters, mechanical and electrical vibrations, higher order homogeneous differential equations | Pages 156-173, 350-354 of Differential Equations (Dawkins) |
| Assignment 1 | Vectors | |
| Assignment 2 | Gaussian Elimination and Vector Spaces | |
| Assignment 3 | Matrices | |
| Assignment 4 | Series and Taylor Series (updated Sep 2 2011) | |
| Assignment 5 | Complex Numbers I | |
| Assignment 6 | Complex Numbers II | |
| Assignment 7 | Differential Equations I (updated Sep 2 2011) | |
| Assignment 8 | Differential Equations II (updated Sep 5 2011) | |
| Assignment 9 | Differential Equations III | |
| Sample final examination | Solutions |
| July 2012 | Solutions |
| Dec 2011 | Solutions |
| Basic revision of vectors -- component form, length of a vector, vector addition and scalar multiplication, dot product, angle between two vectors, orthogonal vectors, scalar and vector projections, cross product, scalar triple product | Tisdell Vectors I |
| Visually understanding basic vector operations | Khan Vectors I |
| Parametric equations of lines | Khan Vectors II |
| Defining a plane in R^3 with a point and normal vector | Khan Vectors III |
| Figuring out a normal vector to a plane from its equation | Khan Vectors IV |
| Distance between a point and a plane in three dimensions | Khan Vectors V |
Linear Algebra
| Geometric interpretation of a linear system in two dimensions | Khan Linear Algebra I |
| Geometric interpretation of a linear system in three dimensions | Khan Linear Algebra II |
| Solving a system of linear equations by using an augmented matrix (infinite number of solutions) | Khan Linear Algebra III |
| Another example of using an augmented matrix (unique solution) | Khan Linear Algebra IV |
| A third example of using an augmented matrix (no solution) | Khan Linear Algebra V |
| Linear combinations and spans of vectors | Khan Linear Algebra VI |
| Introduction to linear independence | Khan Linear Algebra VII |
| More on linear independence | Khan Linear Algebra VIII |
| Determining whether 3 vectors are linearly independent and/or span R^3 | Khan Linear Algebra IX |
| Introduction to linear subspaces of R^n | Khan Linear Algebra X |
| Understanding the definition of a basis of a subspace | Khan Linear Algebra XI |
Matrices
| What a matrix is. How to add and subtract them. | Khan Matrices I |
| Multiplying two 2x2 matrices | Khan Matrices II |
| More on multiplying matrices | Khan Matrices III |
| Identity matrix; introduction to matrix inverses; formula for inverse of a 2 x 2 matrix; determinant of a 2 x 2 matrix | Khan Matrices IV |
| Determinants of 2 x2 and 3 x 3 matrices | Khan Matrices V |
| Inverting a 3x3 matrix | Khan Matrices VI |
| Using the inverse of a matrix to solve a system of equations | Khan Matrices VII |
| Transpose of a matrix | Khan Matrices VIII |
| Taking the transpose of the product of two matrices | Khan Matrices IX |
| Transposes of sums and inverses | Khan Matrices X |
Series
| Sigma notation, introduction to series, n^th partial sum, convergence, geometric series, telescoping series, n^th term test, integral test (not required) | Tisdell Series I |
| Comparison, limit comparison and ratio tests for series | Tisdell Series II |
| Taylor polynomials (a.k.a. polynomial approximations); material after the 24^th minute is not required | Tisdell Series I |
| Taylor and Maclaurin series | Tisdell Series I |
Complex numbers
| i and Imaginary Numbers | Khan Complex Numbers I |
| Adding, subtracting and multiplying complex numbers | Khan Complex Numbers II |
| Dividing complex numbers; argument of a complex number | Tisdell Complex Numbers I | Calculations using the polar form of complex numbers | Tisdell Complex Numbers II |
| Sketching regions in the complex plane | Tisdell Complex Numbers III |
| n^th roots of a complex number | Tisdell Complex Numbers IV |
| Application of complex numbers to trigonometric identities | Tisdell Complex Numbers V |
Differential equations
| Introduction to ordinary differential equations | Tisdell Differential Equations I |
| First order linear differential equations | Tisdell Differential Equations II |
| Separable differential equations | Tisdell Differential Equations III |
| Modelling with differential equations (an example of a mixing problem) | Tisdell Differential Equations IV |
| Geometric interpretation of y'=f(x,y), direction fields, integral curves, plotting direction fields via isoclines, integral curves don't cross, integral curve cannot touch because of uniqueness, consequence of noncontinuity in uniqueness and existence | Mattuck Differential Equations I |
| Euler method (modified Euler methods such as Runge-Kutta are not required) | Mattuck Differential Equations II |
| Introduction to first order homogenous equations | Khan Differential Equations I |
| Exact differential equations | Tisdell Differential Equations V |
| Second order differential equations (homogeneous) | Tisdell Differential Equations VI |
| Solution to a 2nd order, linear homogeneous ODE with repeated roots | Tisdell Differential Equations VII |
| Second order differential equations (inhomogeneous) using the method of undetermined coefficents | Tisdell Differential Equations VIII |
| An example of the reduction of order method | Khan Differential Equations II |
| Mechanical vibration example; variation of parameters example | Tisdell Differential Equations IX |
| Second-order linear homogeneous ode's: superposition, uniqueness, Wronskians | Mattuck Differential Equations III |
| Element | Required to pass course | Weighting | Number of Assessment Artefacts |
| Final Exam | No | 60% | 1 |
| Assignments | No | 5% | 9 |
| Midterms | No | 35% | 2 |
| TOTAL | Yes | 100% | 12 |