Facts
Duration: 1 semester
Period: Fall or Spring Semester
Credits: 3 ECTS
Contact Hours: 58
Self-study: 44
Consultations: 4
Hours: 106
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Main Objectives
The key aim has been to develop the ability to construct probabilistic models in a manner that combines intuitive understanding and mathematical precision.
Learning Outcomes
While mastering the discipline the following expertise is evolved in students:
а) general: to analyze and generalize the information; to express the thoughts clearly.
b) professional: to use probabilistic methods in their professional activity; to choose methods for solving management and design tasks in the sphere of computer science and technology; to justify the decisions, to prove their correctness.
As a result a student should:
Know: the basic concepts and models of modern Probability: probability space, random event, random variable, distribution, independence, sample space; the basic methods of probability calculation: combinatorics, conditioning, sum and product rules; basic discreet and continuous distributions, their properties and the field of application.
Be able to: apply probabilistic methods to solve various theoretical and practical tasks; calculate the probabilities of compound events; find numerical characteristics of random variables.
Have skills of: elementary probability calculation.
Professor
Anna V. Kitaeva
Course annotation
Course unit code |
Specialization: 02.03.02 Computer science and information technologies, 02.03.03 Mathematical support and information systems administration, 09.03.03 Applied computer science, 09.03.04 Software Engineering |
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Course unit title |
Theory Probability |
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Name(s), surname(s) and title of lecturer(s) |
Anna V. Kitaeva, professor |
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Level of course |
Bachelor |
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Semester |
3 or 4 |
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ECTS credits |
3 |
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Working hours |
Contact hours |
58 |
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lectures |
30 |
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seminars |
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practical classes |
28 |
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laboratory classes |
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consultations |
4 |
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Independent work |
44 |
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Total |
106 |
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Work placement |
none |
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Language of instruction |
English |
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Prerequisites |
Calculus, Linear algebra |
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Objectives of the course |
Learning outcomes |
A student’s assessments methods |
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The key aim has been to develop the ability to construct probabilistic models in a manner that combines intuitive understanding and mathematical precision. |
While mastering the discipline the following expertise is evolved in students: а) general: to analyze and generalize the information; to express the thoughts clearly. b) professional: to use probabilistic methods in their professional activity; to choose methods for solving management and design tasks in the sphere of computer science and technology; to justify the decisions, to prove their correctness. As a result a student should: Know: the basic concepts and models of modern Probability: probability space, random event, random variable, distribution, independence, sample space; the basic methods of probability calculation: combinatorics, conditioning, sum and product rules; basic discreet and continuous distributions, their properties and the field of application. Be able to: apply probabilistic methods to solve various theoretical and practical tasks; calculate the probabilities of compound events; find numerical characteristics of random variables. Have skills of: elementary probability calculation. |
work with the course book, research and review of literature and other electronic sources on a given problem individually, homework, home tests, advanced self-study, self-study of a particular subject, tests, exersises, tests and exam. |
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Teaching methods |
Lectures, solving exercises, independent study of literature and other electronic sources, case studies, testing. |
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Course unit content |
Title |
Lectures (hours) |
Self-study (hours) |
Practice (hours) |
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1. Basic probability concepts |
3 |
2 |
2 |
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2. Combinatorics |
2 |
6 |
3 |
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3. Properties of probability |
2 |
6 |
2 |
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4. Conditional probability. Independence |
2 |
6 |
4 |
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5. The Monty Hall problem and other puzzles |
2 |
6 |
3 |
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6. Discrete random variables |
7 |
6 |
5 |
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7. Continuous random variables (RVs with densities) |
7 |
6 |
5 |
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8. Limit results for sequences of random variables |
5 |
6 |
4 |
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30 |
44 |
28 |
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Assessment requirements |
Student’s skills in this subject will be evaluated by means of discussions at the seminars, solving tasks, writing tests and final examination. |
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Assessment criteria |
The assessment is carried out by the following criteria: clarity of explanation; logical thinking; achiving the specified learning standards (some percentages of the tests' performance, solved exercises). |
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The composition of final accumulative mark |
Final accumulative mark consists of: 4 tests –10% each, exam – 60% |
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Course outline arranged by |