Mathematics 0600-S1-CM-M
Semester I, Lecture:
Quantifiers:
- introducing two types of recording
- simple examples and consistent application during the lecture
Sequences of real numbers:
- definition of sequence and basic properties (monotonicity, limitation)
- definition of sequence convergence and the concept of a boundary
- the concept of sequence divergence and the definition of sequence divergent to infinity
- basic theorems on sequence limits
- number e
Function limits:
- definition of the limit of the function at a point according to Heine
- one-sided borders
- boundaries in infinity
- limits not appropriate at the point
- calculus of finite limits
Continuity of functions:
- definition of continuity in point and examples
- continuity of a function on a set of arguments
- basic properties of continuous functions
- continuity of elementary functions, rational functions, composite functions
Function derivative:
- differential quotient
- definition of the derivative of a function at a point
- geometric interpretation of the derivative and the relationship to the tangent to the graph
- a function "derivative of function"
- a derivative of elementary functions
- derivatives of sum, product and quotient of functions
- a derivative of a composite function
- higher-order derivatives
- examples of the use of derivatives in physics and chemistry
Application of derivatives of functions:
- Taylor series, with an introduction introducing the concept of series, its convergence and simple examples
- de l'Hospital rule
- diagnostics of the properties of functions with the use of derivatives, such as monotonicity, extremes of functions, inflection points, concavity
- a study of the function variability
Indefinite integral:
- the concept of an antiderivative function
- elementary integrals
- fundamental properties of integrals
- integration by parts
- integration by substitution
Definite integral:
- the concept of a whole sum
- relationship with indefinite integral - Newton-Leibnitz theorem
- application for calculating surface areas
- improper integrals
Elements of linear algebra:
- Cartesian product
- the concept of linear space
- vectors and matrices and operations on them
- permutations and the sign of the permutation
- determinants and their basic properties
- scalar and vector products in R^3
- inverse matrix
- matrix eigenvalues and vectors
Systems of linear equations:
- matrix representation of a system of linear equations
- Cramer's rule
Multivariable Functions:
- partial derivatives
- local extremes of functions of several variables
- a study of local extremes of functions of two variables
----------------------
Tutorials:
Sets:
- actions on sets (sum, cross-section, difference)
- Cartesian product
- graphical interpretation of the Cartesian product in a two-dimensional Cartesian system
Basic information about the functions:
- domain and range
- creating a graph of a function
- properties such as monotonicity, limitation, evenness, oddness, periodicity, one-to-one
- function composition, inverse function
- illustration based on simple examples
- discussion of the above properties for all functions introduced in further parts of the course
Quadratic function:
- fundamental concepts and properties, product and canonical form
- quadratic equations and inequalities
The absolute value:
- definition
- equations and inequalities
Polynomials:
- definition and graphs
- operations on polynomials, with particular attention to the long division
- Bezout theorem
- zero places and algebraic equation
- finding particular solutions for polynomials with rational coefficients
- product form of a polynomial
- equations and inequalities with polynomials
Rational functions:
- definition and properties
- equations and inequalities with rational functions
Trigonometric functions:
- definitions, essential properties and graphs
- reduction formulas
- basic trigonometric identities
- the relationship of reduction formulas with identities for the sum of angles
- relations between trigonometric identities
- basic trigonometric equations and inequalities
Exponential and logarithmic functions:
- definitions, essential properties and graphs
- exponential and logarithmic equations and inequalities
- particular attention to the importance of monotonicity of both functions when solving inequalities
- power functions
Sequences of real numbers:
- calculating the limits of sequences of real numbers with the use of basic theorems (about the limit of the product or quotient of sequences, about three sequences)
- recognition of sequences converging to the number e or its powers
Function limits:
- calculation of function limits at a point, including left and right limits
- using the calculus of finite limits
- computing improper limits at a point and finding vertical asymptotes
- calculating function limits at infinity and finding horizontal and vertical asymptotes
- solving problems with functions converging to the number e and with the function sin(x)/x
Continuity of functions:
- testing the continuity of a function at a point and on an interval
- continuity of elementary functions
- using theorems about the continuity of functions built of continuous functions, including composition of such functions
Function derivative:
- derivatives of elementary functions
- calculation of derivatives of sum, product, quotient and composition of elementary functions
- higher-order derivatives
Application of derivatives of functions:
- finding Taylor series for simple functions
- application of de l'Hospital rule to find function limits for different cases of indeterminate expressions
- testing the properties of functions with the use of derivatives (monotonicity, extremes, inflection points, concavity)
- a study of the course of function variability and the construction of the graph
Indefinite integral:
- integrals of elementary functions
- usage of basic properties of integrals
- integration by parts, including multiple
- integration by substitution
Definite integral:
- calculation of definite integrals using the Newton-Leibnitz theorem
- calculation of surface areas of flat areas
- calculation of surface areas and volumes of revolving solids
- calculation of improper integrals of various types
Elements of linear algebra:
- calculating the sum and product of matrices
- illustration of the concepts: transposed, unit, symmetric, orthogonal, and triangular matrix
- calculation of determinants of 2x2 and 3x3 matrices from the rules of Sarrus
- the Laplace expansion for computingh matrix determinants of higher degrees
- determining the order of the matrix
- calculation of scalar and vector products in R ^ 3, finding the length of a vector and finding orthogonality
- determination of the inverse matrix
- finding matrix eigenvalues and eigenvectors
Systems of linear equations:
- saving systems of linear equations in matrix form
- finding solutions to systems of linear equations from Cramer's rule
Multivariable Functions:
- first and second-order partial derivatives
- local extremes of functions of multiple variables
- a study of local extremes of functions of two variables
Total student workload
Learning outcomes - knowledge
Learning outcomes - skills
Learning outcomes - social competencies
Teaching methods
Expository teaching methods
Exploratory teaching methods
Type of course
Prerequisites
Course coordinators
Additional information
Additional information (registration calendar, class conductors, localization and schedules of classes), might be available in the USOSweb system: