Subject
Engineering Mathematics
| 1. | Course Title |
Engineering Mathematics Mathematics for engineers |
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| 2. | Code | F23L2W104 | ||||||||||||
| 3. | Study Programme | — | ||||||||||||
| 4. | Organizer of the study programme (unit, institute, department or division) | Faculty of Computer Science and Engineering | ||||||||||||
| 5. | Degree level (first, second, third cycle) | First Cycle | ||||||||||||
| 6. | Academic year / semester | 3 / Winter | ||||||||||||
| 7. | Number of ECTS credits | 6 | ||||||||||||
| 8. | Teacher | Vesna Dimitrova | ||||||||||||
| 9. | Prerequisites for enrolling in the course | Calculus 1 or Mathematics 1 | ||||||||||||
| 10. | Objectives of the course programme (competences) | The subject covers methods for the numerical solution of various mathematical problems, as well as the application of some. The most significant mathematical transformations in engineering. |
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| 11. | Course content | Lectures: 1. Numerical Mathematics - Approximate Numbers: Representation and Operations, Types of Errors (Absolute and Relative Error). 2. Numerical Mathematics - Rounding of approximate numbers: significant and correct digits. 3. Numerical Mathematics - Errors in computing the values of functions of a single independent variable. 4. Numerical Mathematics - Approximate solution of nonlinear equations, numerical methods for solving systems of linear equations. 5. Numerical Mathematics - Computational schemes for polynomials and their practical application. 6. Numerical Mathematics - Interval bounds for the real roots of polynomials equations. 7. Mathematical Transformations - Complex Numbers: definition, properties, modulus, argument, 8. Mathematical Transformations - Complex Functions, Types of Complex Functions, Derivative of Complex Functions, Cauchy-Riemann Conditions 9. Mathematical Transformations - Laplace Transform (definition, existence, properties), Inverse Laplace Transform, 10. Mathematical Transformations - Methods for solving ordinary differential equations using the Laplace transform. 11. Mathematical Transformations - Fourier Transforms, Fourier Series. 12. Mathematical Transformations - Fourier Integral, Inverse Fourier Transform. Practical Classes: 1. Practical problems with approximate numbers. 2. Examples of significant figures. 3. Examples of elementary function errors. 4. Problems and examples with various numerical methods. 5. Practical examples with computational schemes for polynomials. 6. Practical problems with Lagrange, Newton, and Cartesian criteria. 7. Practical examples and tasks. 8. Examples of complex functions. 9. Problems applying the Laplace transform and the inverse Laplace transform. 10. Practical examples for solving ordinary differential equations using the Laplace transform. 11. Practical problems for determining the Fourier transforms of functions. 12. Practical problems for determining Inverse Fourier Transforms for functions. |
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| 12. | Learning methods | Lectures, exercises, independent work, project assignments, seminar papers | ||||||||||||
| 13. | Total available time | 6 ECTS x 30 hours = 180 hours | ||||||||||||
| 14. | Distribution of available time | 30 + 45 + 15 + 15 + 75 = 180 hours | ||||||||||||
| 15. | Forms of teaching activities |
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| 16. | Other forms of activities |
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| 17. | Assessment method |
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| 18. | Grading criteria (points / grade) |
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| 19. | Requirement for obtaining a signature and taking the final exam | completed 15 and 16 | ||||||||||||
| 20. | Language of instruction | Macedonian and English | ||||||||||||
| 21. | Method for monitoring the quality of teaching | Internal Evaluation and Survey Mechanism | ||||||||||||
| 22. | Literature |
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