fall | time | place | lectures and
exercises |
monday 17:05 - 18:50
thursday 12:05 - 13:50 |
Newton N-D |
ECTS : 7.5 credit points
This introductory course focuses on basic concepts of calculus starting
with functions of a single variable.
First you explore scalar linear and nonlinear differential equations.
Such equations are key in explaining the dynamic behavior of many different
systems in a wide variety of fields.
This serves as a motivation to learn about techniques, such as
differentiation, integration, expansion in a small variable and complex
numbers.
Next you learn to use tools to study systems of several variables:
vectors, matrices and diagonalization of matrices.
You also extend techniques such as differentiation to functions of two
variables and learn about their geometrical representation.
The course concludes with various approaches to optimisation of functions
of two variables.
The techniques you learn in this course have proven to be highly effective
in a wealth of areas as will be illustrated by examples in various fields.
Some attention is paid to underlying mathematical foundations, but the focus
is on getting a working knowledge of the methods and on learning to apply
the techniques.
After completing this course students are able to:
31.8. Review of differentiation.
3.9. Review of basic integration.
7.9. Differential equations.
10.9. Direction fields, Euler approximation.
14.9. Separation of variables.
17.9. Partial fractions.
21.9. Substitution.
24.9. Integration by parts.
28.9. Homogeneous linear second-order differential equations.
1.10. Non-homogeneous linear second-order differential equations.
5.10. Complex numbers.
8.10. Linear second-order differential equations: complex case.
12.10. Questions.
15.10. Midterm exam.
26.10. Vectors.
29.10. Scalar product.
2.11. Linear mappings and matrices.
5.11. Gaussian elimination, inverse matrices, data.
9.11. Determinants.
12.11. Eigenvectors and eigenvalues.
16.11. Diagonalization.
19.11. Power series and geometric series
23.11. Binomial series and divergence.
26.11. Multivariable functions.
30.11. Gradients.
3.12. Unconstrained optimisation.
7.12. Constrained optimisation.
10.12. Questions.
14.12. Final exam.
17.12. Discussion.