Name of the course: MATHEMATICAL ANALYSIS |
Course codę: 14.3.111.71 AI05 15 | |||||||
Name of the unit giving the course: Department of Econometrics and Statistics | ||||||||
Name of the field of Study: ECONOMICS AND IT APPLICATIONS | ||||||||
Form of studies: Full-time Bachelor |
Education profile: academic |
Specialization: | ||||||
Year / semester 1/1 |
Course/module status: Field of study |
Course/module language: English | ||||||
Form of the course |
lecture |
exercises |
laboratories |
conyers. |
seminar |
other | ||
Number of hours |
15 |
30 |
Course/module coordinator
dr Barbara Batog, batoq@wneiz.pl. 91 4441978
Course deals with differential and integral calculus for single and many variable Goal of the course/module functions; elements of this course will be used in other courses (for example
economics, statistics and econometrics)
Course reguirements
Knowledge: student knows mathematics on the high school level Skills: student is able to solve mathematical problems on the high school level Social competencies: student studies systematically
Number of hours
Course content
Form of the course - lecture
1. Cartesian product. Definition and propertiesof functions: injection, surjection, bijection, monotonicity, inverse functions, cyclometric functions, function composition. Elementary functions. Examples of countable and uncountable sets
2. Metric space. Neighborhood and punctured neighborhood, open and closed set, bounded set. Limits of the seguences, conyergent and diyergent seguences, Euler's number e, indeterminate forms_
3. Definition and properties of limits and continuity
4. Difference quotient, definition and properties of derivative of single variable function, properties of differentiable function, derivatives of elementary functions; rules for finding the derivatives, differential, higher-order derivatives. Derivatives in geometry and economics
5. Lagrange’s and Rolle’s theorems. Application of derivatives to analyze single variable functions:
necessary and sufficient conditions of existing of local and global extrema, monotonicity, inflection points, curyature. L'Hópital*s rule. Asymptotes._
6. Indefinite integrals, integration by substitution and by parts.
7. Riemann definite integral, fundamental theorem of integral calculus. Improper integrals. Relationship between definite integral and area._
8. Differentiability, partial derivatives and local extrema of many variable functions
Form of the course - exercises
1. Cartesian product. Definition and propertiesof functions: injection, surjection, bijection, monotonicity, inyerse functions, cyclometric functions, function composition. Elementary functions.
2. Limits of the seguences, conyergent and diyergent seguences, Euler's number e, indeterminate forms.
3. Limits and continuity of functions.