Code: | L.BIO002 | Acronym: | MATI |
Keywords | |
---|---|
Classification | Keyword |
OFICIAL | Basic Sciences (Mathematics, Physics, Chemistry, Biology) |
Active? | Yes |
Responsible unit: | Department of Civil Engineering |
Course/CS Responsible: | Bachelor in Bioengineering |
Acronym | No. of Students | Study Plan | Curricular Years | Credits UCN | Credits ECTS | Contact hours | Total Time |
---|---|---|---|---|---|---|---|
L.BIO | 129 | Syllabus | 1 | - | 6 | 52 | 162 |
Teacher | Responsibility |
---|---|
Isabel Maria Marques da Silva Magalhães |
Recitations: | 2,00 |
Laboratory Practice: | 2,00 |
Type | Teacher | Classes | Hour |
---|---|---|---|
Recitations | Totals | 1 | 2,00 |
Isabel Maria Marques da Silva Magalhães | 2,00 | ||
Laboratory Practice | Totals | 3 | 6,00 |
Carla Maria Cruz | 6,00 |
This course unit aims to provide students with theoretical and practical knowledge in Linear Algebra and Analytical Geometry, as well as Differential and Integral Calculus of a real functions of a real variable.
LEARNING OUTCOMES
Students should be capable of:
1- carry out matrix operations.
2- calculate determinants of any order and be capable of using their main properties.
3- classify systems of linear equations regarding the type of solution and resolution of systems by using Gaussian elimination method.
4- analyse linear dependence and independence of a group of vectors in R2 and R3.
5- determine the dimension and bases of R2 and R3 subspaces
6- determine eigenvalues and eigenvectors, as well as their eigensubspaces.
7- calculate the orthogonal projection, internal and external product between 2 vectors.
8- obtain inverse trigonometric functions, as well as their derivatives.
9- calculate primitives by substitution and parts method.
10- calculate primitives of rational fractions.
11- calculate defined Riemann integrals using fundamental theorems.
12- obtain the areas of plane regions using defined integrals.
A - Topics of Linear Algebra and Analytical Geometry
I- Matrices: definition, dimension and operations; the special case of square matrices: triangular matrices, symmetric matrices and matrix transposition; inverse matrix and its properties; orthogonal matrices; power of a matrix; matrices condensation method.
II- Determinants: definition and properties; determinants calculation- Laplace theorem; application of determinants to the calculation of the inverse matrix and the matrix rank.
III- Systems of linear equations: homogeneous and non-homogeneous systems; vector space of solutions; matrix form of systems; discussion and resolution of systems- Gauss-Jordan method; Cramer rules.
IV- Vector spaces: definition; Rn case; vector subspaces; linear dependence and independence; basis and dimension
V- Eigenvalues and eigenvectors: definition; characteristic polynomial and determination of eigenvalues of a matrix; eigensubspaces associated to an eigenvalue.
VI- Analytical geometry: vector norm; orthogonal projection of a vector onto another; scalar or internal product; vector or external product and mixed product in R3.
B - Differential and Integral Calculus of real-valued functions of a real variable
I- Revision of some real functions of real variable: exponential and logarithmic function; its properties and graphs. Brief revision of the concepts of limits and continuity and its application to some functions; some indeterminate forms; trigonometric functions and their inverse; hyperbolic function.
II- Derivation: definition and interpretation of the derivative; rules of derivation of composed and inverse functions; problems of application to the growth of function and determination of maximum and minimum; examples of exponential growth and logistic curve; l’Hôpital’s rule; notion of differential.
III- Primitives: definition of primitive or antiderivative; simple examples and elementary rules; methods of substitution and parts; decomposition and primitives of rational fractions.
IV- Riemann integral on an interval [a,b]:definition by Riemann sums; basic properties; fundamental theorem of calculus; application of integral to the calculation of areas; mean value and mean value theorem.
Designation | Weight (%) |
---|---|
Teste | 90,00 |
Trabalho prático ou de projeto | 10,00 |
Total: | 100,00 |
Designation | Time (hours) |
---|---|
Estudo autónomo | 106,00 |
Frequência das aulas | 56,00 |
Total: | 162,00 |
To be admitted to exams, students cannot miss more than 25% of classes (according to the General Evaluation Rules of FEUP).
This course has distributed assessment without final exam. Thus, the final classification (FC) is defined by:
CF = maximum{0.45 x MT1 grade + 0.45 x MT2 grade + 0.1 MDL; 0.5 x MT1 grade + 0.5 x MT2 grade}
where:
- MT1: 1st Mini-Test,
- MT2: 2nd Mini-Test, (which will only include the subjects after the 1st mini-test);
- MDL: average of Moodle activity grades over the semester
If students do not pass with the distributed assessment or wish to improve their grade, they may take an appeal test related to a single part of the subject (Appeal of the 1st Mini-Test - MTR1 for the Calculus part or Appeal of the 2nd Mini-Test - MTR2 for the Algebra part) or take a global exam (ER).
Therefore, the final classification (CFR) of the appeal season will be:
CFR=ER grade (if a global exam is taken)
Or
CFR=0.5 x MTR1 grade + 0.5 x MT2 grade (if 'repeats' MT1 - Calculus)
Or
CFR=0.5 x MT1 grade + 0.5 x MTR2 grade (if 'repeats' MT2 - Algebra)
In any case, to obtain a grade higher than 18, the student must take a supplementary exam.
All assessment components are expressed on a scale of 0 to 20.
Appeal exam.