Course code: 251101 | Subject title: MATHEMATICS I | ||||
Credits: 6 | Type of subject: Basic | Year: 1 | Period: 1º S | ||
Department: Mathematics and Computer Engineering | |||||
Lecturers: | |||||
BELLOSO EZCURRA, JOSE JAVIER [Mentoring ] |
Real functions in one variable. Limit. Continuity. Differentiation. Extrema and optimization. Taylor polynomial. Integration in one variable.
Linear system of equations. Vector spaces. Orthogonality. Determinants. Eigenvalues and eigenvectors.
E1: Ability to solve mathematical problems in engineering. Ability to apply theoretical knowledge on linear algebra, differential geometry, calculus, differential equations, numerical methods, algorithms, statistics and optimization
Methodology - Activity |
Attendance |
Self-study |
A-1 Lectures |
44 |
|
A-2 Practical clases |
16 |
|
A-3 Debates, group study, etc |
|
|
A-4 Assignments |
|
5 |
A-5 Readings |
|
|
A-6 Self-study |
|
70 |
A-7 Exam, evaluation tests |
3 |
|
A-8 Office hours |
12 |
|
Total |
75 |
75 |
There are two alternatives for passing this subject:
1 Ordinary path:
The student must achieve a score of 5 (over 10) or above and attain at least a score of 4 (again over 10) in the exams and assignment homework previously mentioned.
2 Extraordinary examination call: it is also available for students who fail to pass the exam in the ordinary path
Lesson 0. Introduction
Number sets. Complex numbers. Sets in R. Absolute value function. Inequalities
First part
Lesson 1. Functions in one variable, limits and continuity.
Basic notions on real functions in one variable. Continuity: definition and local properties . Weierstrass, Bolano and Intermediate value Theorems
Lesson 2: Differential calculus
Derivative of a function at a point: definitions, interpretation and first properties. Derivative function. Derivatives of higher degree. Chain's rule. Rolle and Mean Value Theorems. Applications: extrema, L'Hopital rule. Finding functions zeros. Taylor and Maclaurin polynomials.
Lesson 3: Integral calculus
Riemann integral: definition and properties. Integral mean value theorem. Fundamental Calculus Theorem. Barrow rule. Integration by parts. Change of variables.
Second part
Lesson 1: Linear systems of equations
Linear systems of equations. Gauss elimination. Gauss elimination with pivoting. Gauss-Jordan method. Matrix form of a linear system. Matrix definition and first properties. Matrix product. Inverse matix. Rank. Rouche-Frobenius theorem
Lesson 2: Vector spaces in Rn
Null and Column space of a matrix. Vector subspace. Linear dependence and independence. Basis. Coordinates. Dimension of a subspace
Lesson 3: Inner product and Euclidean spaces
Orthonormal basis. Gram-Schmidt algorithm. Orthogonal matrix. QR decomposition. Orthonormal basis. Least square approximation. Pseudoinverse.
Lesson 4: Determinants
Definition and main properties. Cramer rule.
Definition. Matrix characteristic polynomial. Diagonalisation of a matrix. Eigenvalues and eigenvectors for symmetric matrices. Quadratic form. Singular value decomposition.
Access the bibliography that your professor has requested from the Library.