MANAGEMENT PROJECTS - Syllabus

Details of the discipline

Educational level First (undergraduate)
Field of knowledge 12 Information technology
Specialty 126 Information systems and technologies
Educational program Integrated information systems
Discipline status Normative
Educational form full-time/correspondence/distance
Educational year, semester 4th year, spring semester
Discipline scope 90 hours (18 hours – Lectures, 18 hours – Laboratory, 54 hours – SSW)
Semester control / control measures Test
Schedule http://rozklad.kpi.ua
Language Ukrainian
Course leader / teachers

Lecturer, Laboratories: Doctor of Science, Prof. Bogdan Korniyenko,

b.korniyenko@kpi.ua,

Laboratory: Valery Mykolayovych Kolesnik,

v.kolesnik@kpi.ua,

Course placement https://campus.kpi.ua

Program of educational discipline

Description of the educational discipline, its purpose, subject of study and learning outcomes

**Description of the discipline.**The relevance and necessity of studying the discipline of "Project Management" is due both to the processes of Ukraine's integration into global society and the need for further development of the information society. Among professional personnel, there is an acute lack of skills in formalization, preparation and project management. The practical orientation of the educational discipline is determined by the urgent need to master the world experience of development, analysis, implementation and management of projects, especially in the field of information systems and software development. This course introduces students to modern views on the main theoretical, methodological and organizational foundations of project management; project management methods at all phases of the project life cycle; features, principles and tasks of project management in the field of informatization; with the capabilities of the most common project management software tools in Ukraine; creation of a project management information system in the MS Project environment; organization, planning, control and regulation of IT project management processes. Students should learn to apply the acquired knowledge of project management when implementing projects of informatization of socio-economic objects, reengineering of business processes, consulting projects related to the implementation of information technologies, etc.

**The subject of the academic discipline:**project management processes and tools used by the project manager for effective management, project management methodology.

**Interdisciplinary connections.**DisciplineManagementprojectsis based on the disciplines: Software Development Technologies, Systems Theory and System Analysis, Computer networks,Databases, Theory of algorithms.

**The purpose of the educational discipline.**The purpose of the discipline is to thoroughly acquaint students with the theoretical foundations of the methodology of preparation and implementation, methods and means of building projects, attracting resources for the implementation of these projects and their management mechanisms for various subject areas.

The main tasks of the academic discipline

Knowledge:

  • system approaches and methods of project management;

  • critical factors of project success;

  • the concept of risk management, methods and means of their identification, as well as assessment and minimization of negative consequences;

  • project personnel management in the project management system;

  • methods of forcing project costs.

Skills:

  • identify and classify projects and project management tasks within the organization;

  • form an organizational structure for project management;

  • determine the organizational, economic, technical and operational feasibility of the project

  • design and model business processes of the system

  • use existing project management standards;

  • choose software for project management tasks.

Pre-requisites and post-requisites of the discipline (place in the structural and logical scheme of training according to the relevant educational program)

**Prerequisites:**the ability to apply knowledge in practical situations, the ability to use information and communication technologies, the ability to search, process and analyze information from various sources, the ability to apply knowledge about the basic principles and methods of constructing algorithms and determining the main technological parameters.

**Post-requisites:**know the concept of a project and its life cycle patterns, methodology, basic concepts and definitions of project management; the structure of the project (sub-goals, main stages of the work to be performed) to justify it; classification of projects and hierarchy of project goals; composition of project participants and their role; laws of communication and methods of analyzing interpersonal relations; determine the necessary volumes and sources of financing; select performers, in particular, through tender procedures; prepare and conclude contracts; determine the terms of project implementation, schedule its implementation, calculate the necessary resources; principles of project development management; principles of construction, types and sequence of development of the organizational structure of project management; principles of project planning, control and regulation;

After completing the discipline, students will be able to apply methods and tools of project management in everyday activities, define the project concept and its strategic and tactical tasks, build an organizational structure of project management and design a project office using modern methods and tools of organizational modeling of projects, carry out project work planning and carry out project expertise, apply the analysis of interpersonal relations and the laws of communication to manage the project team, implement automated project management information systems.

Content of the academic discipline

Lecture classes

Chapter 1. Basics of organization and project management

Chapter 2. Implementation and control of the software development project**.**

Laboratory classes

  1. IT project management methodologies.

  2. Risk analysis.

  3. Comparative analysis of information systems.

  4. Project planning.

  5. Identification of project needs.

Educational materials and resources

Basic literature

  1. Andrienko O. Project management in business associations of small and medium-sized enterprises: manual Kyiv: 2017. - 77 p.

  2. Yu. I. Burimenko, L. V. Galan, I. Yu. Lebedeva, and others. Project management: education. manual /under the editorship Yu. I. Burimenko. Odesa: ONAZ named after O. S. Popova, 2017. - 208 p.

  3. Gontareva I. V. Project management: a textbook Kharkiv Khnei University, 2011. - 444 p.

  4. Kozik V.V., Tymchyshyn I.E. Workshop on project management: training. manual. Lviv: Publishing House of Lviv Polytechnic, 2012. – 180 p.

  5. Matviyishyn E.H. Planning of project actions: training. manual Kyiv: Hi-Tech Press, 2008. - 216 p.

  6. Mitsura O.O., Olefirenko O.M. Management of innovative projects: lecture notes. Sumy: Sumy State University, 2012. - 92 p.

  7. Nozdrina L.V., Yashchuk V.I., Polotai O.I. Project management: a textbook. Kyiv: Center for Educational Literature, 2010. – 432 p.

  8. Petrovych Y.M., Novakivskyi I.I. Project management: textbook Lviv: Publishing House of Lviv Polytechnic, 2018. - 396 p.

  9. Veretennikov V. I. Project management: Education. manual / V. I. Veretennikov, L. M. Tarasenko, G. I. Hevlych. — K.: Center of Educational Literature, 2006. — 280 p.

  10. Tian R.B., Kholod B.I., Tkachenko V.A. Project management: textbook. - K. Center of educational literature, 2003. - 224 p.

  11. Korniyenko B.Y. Workshop on project management: Training. Manual. - K. KPI named after Igor Sikorskyi, 2023. – 50 p.

Supporting literature

  1. Strokovych G. V. Project management: a textbook for students of economic specialties Kharkiv: Publishing House of the National Academy of Sciences, 2013. - 220 p.

  2. Tarasyuk H.M. Project management: education. manual for students higher education institutions - 2nd type. Kyiv: Karavela, 2006. - 320 p

  3. Project management: education. manual / edited by O.V Ulyanchenko and P.F. Tsigikala Kharkiv: HNAU named after V.V. Dokuchaeva, 2010. - 522 p.

  4. Feshtur R.V., Kichor V.P., Yakymov A.I., and others. Making project decisions: a study guide. Lviv: Publishing House of Lviv Polytechnic, 2013. - 220 p.

  5. Chumachenko I.V., Morozov V.V., Dotsenko N.V., Cherednychenko A.M. Project management: the processes of planning project actions: a textbook / Kyiv: KROC, 2014. - 673 p.

Educational content

Methods of mastering an educational discipline (educational component)

Lecture classes

No. z/p The name of the topic of the lecture and a list of the main questions (a list of didactic tools, references to the literature and tasks on the SRS)
1

Topic 1.1. Structure and content of the course. RSO

Topic 1.2. General Information. The concept of project management.

Lecture 1. Project management system: goals, functions, structure elements. Project management systems, their goals and functions. Types of projects and features of their management. Objective necessity of project management. A systematic approach to project management. Composition of system elements and their relationship. Basic conditions of project management.

Main and local goals and functions of project management. The main direction and goals of the project. Goal setting at various stages of project preparation and implementation. Hierarchy of project goals and their composition. Project management functions. Project management functions. Project management model, combination of main functions and tools for their implementation.

Literature: [1, pp. 5-31; 3, pp. 3-10; 4, pp. 10-42.]

Tasks on SRS.Basic elements of project management knowledge. Project-oriented management. System approach and integration of projects.

2

Topic 1.3. Organization of project management.

Lecture 2. External organizational structures of the project.

Types of organizational systems. The main types of organizational management structures. Organization design technology in the project management system.

Designing the organizational structure of project management. Basic elements of the organizational structure of the project. Functional and target approaches, their advantages and disadvantages. The essence and main forms of external and internal organizational structures.

Principles of construction. Types of external organizational structures of traditional, matrix, hybrid, modular communication, their characteristics, conditions of use. Matrix organizational structure. The main types (functional, balance, design). Basic conditions of creation and use. Advantages and problems of matrix structures.

Internal organizational structures. Internal functional structure of the project. Internal matrix structure, divisional, federal, mixed structures. Conditions and features of the use of internal organizational structures.

Literature: [1, pp. 37-49; 3, p. 17-28; 4, pp. 50-72.]

Tasks on SRSDefine the organizational structure, roles and responsibility system in the software development project.

3

Topic 1.4. Planning the content of the project.

Lecture 3. Project structuring.

Purpose and functions of project planning. Characteristics of project planning works. Requirements for the sequence of work on project planning. Methodological approaches to project planning. Traditional approach, systematic, multi-stage and multi-level planning. Methodology "cost-time-resources" (CTR). Project integration. Formation of the project management information system (PMIS).

Components of project structuring. Structuring methodology, its characteristics and significance. Work structure subsystems (end results, sub-projects, work modules, work elements), their characteristics. The main features of the work package. Cost structuring. Development of a responsibility matrix.

Combination of project structures. Creation of a bi-directional structure of the project. Formation of a three-directional structure of the project based on a combination of working, organizational and cost structures. Coding of the project and its components. CTR is a dictionary for medium and large projects.

Literature: [1, pp. 50-71; 3, p. 30-54; 4, p. 80-97.]

Tasks on SRS.Describe the methods of development and control of the calendar plan of the project.

4

Lecture 4. Project planning in time. Calendar planning of the project.

The main principles of construction and differences of arrow graphs (ADM' and forward graphs (PDM). PERT system. Project grid diagram. The main goal and task of developing network graphs. Types of communication in network graphs. Methodology for calculating network graph parameters (early and late terms beginning and end, determining the critical path, critical and non-critical work, time reserve for non-critical work). Determination of project work duration. Expert forecasts of optimistic, pessimistic and most likely work duration time. Evaluation of work (project) duration based on analogues. Work duration modeling. Reduction of the duration of the project due to the optimization of the network schedule.

The essence, tasks and types of calendar plans. Principles and methods of planning projects in time. Methodology of calendar planning of projects, Gantt chart (order of construction, main parameters and characteristics).

Literature: [1, p. 75-91; 3, p. 59-80; 4, p. 100-123.]

Tasks on SRS.Analysis of project scenarios. The essence of simulation modeling.

5

Topic 2.1. Project implementation control.

Lecture 5. Methods of project implementation control. System for monitoring compliance with project parameters. The main elements of the control cycle. Toolkit of project control. Control of execution of calendar plans and budgets of units, Reporting in the control system (tasks, construction principles, submission forms).

Literature: [1, p. 110-126; 3, p. 82-95; 4, p. 128-140; 6, pp. 219-234.]

Tasks on SRS.Describe Deming's quality assurance philosophy. Statistical methods of quality assessment.

6

Topic 2.2. Project risk management.

Lecture 6. The essence and classification of project risks.

Production risk. Financial (credit) risk. Investment risk, dynamic and static risks. Factors influencing the dynamics of risks. Risks of project unsustainability. Tax risk. Risk of non-payment of debt, Risk of non-completion of construction and failure to reach the design capacity. Qualitative and quantitative analysis of project risks. Statistical methods of risk analysis. Cost feasibility analysis. Method of expert evaluations, Analytical method. The method of using analogues.

Ways to reduce project risks. Distribution of risks between project participants. Qualitative risk distribution. Risk insurance. Reserving funds to cover unforeseen expenses. Formation of reaction to risk.

Literature: [2, pp. 52-87; 4, p. 150-170.]

Tasks for SRS.Analysis of existing design approaches.

7

Topic 2.3. Project quality management.

Lecture 7. Project quality control.

Modern concepts of quality management and their use in project management. The essence of project quality management. ISO 9000, ISO14000 standards system. Total quality management (TQM). Continuous improvement, Project quality assurance planning. Quality assurance policy for project solutions. Norms and rules of quality assurance. Project quality management plan. Profit-cost analysis. Comparison with the sample. Flow charts. Ishikawa diagram. Design of experiments. Costs of quality assurance. Plan for testing and acceptance of project components. Inspection of the project stage. Control charts. Checklists. Pareto charts, statistical modeling. Analysis of trends.

Literature: [ 7, p. 38-55. ]

Tasks for SRS. Project audit. Correction of design documents.

8

Lecture 8. Automation of project management processes.

Automation of project management processes. The objective necessity of using computer technology in project management processes. Special project management functions are still subject to automation. Requirements for setting tasks for project management automation. Packages of application programs for project management. Complex software packages for investment, commercial and production activities. Highly specialized computer programs for project management. Features of the combination of software elements of different directions and levels of integration. Export-import of data from various software packages. Universal automated tables and graphs.

Literature: [3, pp. 118-135; 4, pp. 182-194]

Tasks for SRS. Documentation management. Capability Maturity Model (CMM).

9

Lecture 9. Modular control work

All preliminary material, including the basic concepts of project management technology, is presented for the control work.

Tasks include theoretical and practical parts, as well as an additional task, in case of timely completion of the main questions.

Tasks for SRS. Repeat the material of 1-8 lectures.

**
**

Laboratory classes

No The name of the laboratory work Number of aud. hours
1

Laboratory work 1. IT project management methodologies.

Get an overview ofIT project management methodologies. Get to know one methodology in detail.

Literature: [11, p. 10]

4
2

Laboratory work 2.Risk analysis.

Familiarize yourself with the risk analysis process. Carry out a risk analysis using the "Matrix of trade-offs" and "Risk analysis table" methods.

Literature: [11, p. 18]

4
3

Laboratory work 3.Comparative analysis of information systems.

Conduct an analysis of analogs - information systems from the same subject area - to identify requirements for the software product being developed.

Literature: [11, p. 27]

4
4

Laboratory work 4.Project planning.

Familiarize yourself with the features and purpose of the Gantt chart. Create a Gantt chart based on the table showing the stages of the project.

Literature: [11, p. 36]

4
5

Laboratory work 5.Identification of project needs.

Familiarize yourself with the main approaches to identifying project needs. Implement the procedure for identifying project needs for the selected subject area.

Literature: [11, p. 42]

2

Independent work of a student/graduate student

No. z/p

The name of the topic submitted for independent processing Number of hours of SRS
1 Basic elements of project management knowledge. Project-oriented management. System approach and integration of projects. 6
2 Define the organizational structure, roles and responsibility system in the software development project. 6
3 Describe the methods of development and control of the calendar plan of the project. 6
4 Analysis of project scenarios. The essence of simulation modeling. 6
5 Describe Deming's quality assurance philosophy. Statistical methods of quality assessment. 6
6 Analysis of existing design approaches. 6
7 Project audit. Correction of design documents. 6
8 Documentation management. Capability Maturity Model (CMM). 6
9 Preparation for the assessment on the entire material of the module. 6

Policy and control

Policy of academic discipline (educational component)

The system of requirements for the student:

  • attending lectures and laboratory classes is a mandatory component of studying the material;

  • the teacher uses his own presentation material at the lecture; uses Google Drive for teaching the material of the current lecture, additional resources, laboratory work, etc.; the teacher opens access to a certain Google Drive directory for downloading electronic laboratory reports and answers to the MKR;

  • during lectures, it is forbidden to distract the teacher from teaching the material, all questions, clarifications, etc. students ask at the end of the lecture in the time allotted for this;

  • laboratory works are defended in two stages - the first stage: students perform tasks for admission to the defense of laboratory work; the second stage is protection of laboratory work. Points for laboratory work are taken into account only if there is an electronic report;

  • modular control work is written in lectures without the use of auxiliary devices (mobile phones, tablets, etc.); the result is forwarded in a file to the corresponding Google Drive directory;

  • incentive points are awarded for: active participation in lectures; participation in faculty and institute olympiads in academic disciplines, participation in work competitions, preparation of reviews of scientific works; presentations on one of the topics of the SRS discipline, etc. The number of encouraged points is more than 10.

Teaching methods

When teaching an educational discipline, the use of such educational technologies as: problem-based lectures, work in small groups, etc. is provided for the activation of the educational process.

Problem lecturesare aimed at the development of students' logical thinking and are characterized by the fact that the range of questions of the topic is limited to two or three key points, the students' attention is concentrated on the material that was not reflected in the textbooks, it is usedthe experience of foreign educational institutions with the distribution of printed material to students during lectures and the selection of the main conclusions on the issues under consideration. During lectures, students are given questions for independent reflection, but the lecturer answers them himself, without waiting for the students' answers. The system of questions during the lecture plays an activating role, forces students to concentrate and start actively thinking in search of the right answer.

Mini-lecturesinvolve the presentation of educational material in a short period of time and are characterized by a significant capacity, complexity of logical constructions, images, proofs and generalizations. Mini-lectures are held, as a rule, as part of a research class.

Case method(method of analysis of specific situations) makes it possible to bring the learning process closer to the real practical activity of specialists and provides consideration of production, management and other situations, complex conflict cases, problem situations, incidents in the process of learning educational material.

Tools, equipment and software, the use of which involves the academic discipline

CASE tool Microsoft Project

Reference summary of lectures on the discipline "Project Management" (electronic version)

Types of control and rating system for evaluating learning outcomes (RSO)

The student's rating in the discipline consists of the points he receives for:

  1. performance and protection of 5 laboratory works;

  2. execution of 1 modular control work (MKR).

System of rating points and evaluation criteria

Laboratory works:

"perfectly", a complete answer to the questions during the defense (at least 90% of the required information) and a properly prepared protocol for laboratory work - 10 points;

"good", a sufficiently complete answer to the questions during the defense (at least 75% of the required information) and a properly prepared protocol for laboratory work - 8 points;

"satisfactory", incomplete answer to the questions during the defense (at least 60% of the required information), minor errors and a properly prepared protocol for laboratory work - 6 points;

"unsatisfactory", an unsatisfactory answer and/or an improperly prepared protocol for laboratory work - 0 points.

Modular control works:

"perfectly", complete answer (at least 90% of the required information) – 50 points;

"fine", a sufficiently complete answer (at least 75% of the required information), or a complete answer with minor errors - 40 points;

"satisfactorily", an incomplete answer (but not less than 60% of the required information) and minor errors - 30 points;

"unsatisfactorily", unsatisfactory answer (incorrect problem solution), requires mandatory rewriting at the end of the semester - 0 points.

Incentive points

for active work at lectures1 point

Intersessional certification

According to the results of educational work for the first 7 weeks, the maximum possible number of points is 20 points. At the first certification (8th week), the student receives "credited" if his current rating is not less than 10 points.

According to the results of 13 weeks of training, the maximum possible number of points is 32 points. At the second certification (14th week), the student receives "credited" if his current rating is not less than 16 points.

Maximum amountweight points of control measures during the semester is:

R=5*rlab+rmkr=5*10+50=100.

Students who at the end of the semester have a rating of less than 60 points, as well as those who want to improve their rating, complete a credit test.

The test consists of 4 questions. Each is evaluated with 25 points.

The sum of points for each of the four questions () is translated into a passing grade according to the table:

Points

R=

ECTS assessment

Traditional assessment

95 - 100

perfectly

Enrolled

85 - 94

very good

75 - 84

fine

65 - 74

satisfactorily

60 - 64

enough

R < 60

Not satisfactory

Not counted

The plan was not executed

not allowed

Test:

The sum of the starting points and the points for the modular control work is converted into a final grade according to the table:

Points Rating
95-100 perfectly
85-94 very good
75-84 fine
65-74 satisfactorily
60-64 enough
Less than 60 unsatisfactorily
Failure to complete seven laboratory works and completion of the MCR for the grade "unsatisfactory" not allowed

Additional information on the discipline (educational component)

  • the list of theoretical questions submitted for semester control is given in Appendix 1;

  • at the beginning of the semester, the teacher analyzes the existing courses on the topic of the discipline and offers students to take the corresponding free courses. After the student receives a certificate of completion of remote or online courses on the relevant topic, the teacher closes the relevant part of the course (laboratory or lectures) by prior agreement with the group.

Working program of the academic discipline (Syllabus):

Folded Professor, Doctor of Technical Sciences, Bogdan Yaroslavovych Korniyenko

Approved Department of IST (protocol No. 13 dated 15.06.2022)

Agreed Methodical commission of the faculty[1](protocol No. 11 dated 07.07.2022)

Appendix 1

List of theoretical questions for credit

1. Organizational toolkit of project management (network matrices, matrix of division of administrative management tasks, information technology model).

2. General principles of building organizational structures of project management.

3. Characteristics of automated project management systems.

4. Establishment and development prospects of project management in Ukraine as necessary conditions for economic growth.

5. Project management at the enterprise.

6. The place and importance of projects in the investment strategy of the enterprise.

7. Types of projects and peculiarities of their management.

8. Choosing an effective project management organizational structure.

9. The concept of a multi-level system of planning and control of the project management process.

10. Methods of reducing the duration of project implementation.

11. Methods of estimating project costs.

12. Monitoring the execution of project decisions in space and time.

13. Determination, assessment, reduction and control of risk in the project.

14. Modification of the project portfolio according to the level of minimal risks.

15. formation of the project quality assurance program.

16. Harmonization of quality and cost parameters of the project.

17. Formation and development of the project team.

18. Automation of project management processes.

19. Features of the combination of software of different direction and level of integration.

20. Possibilities of using the MS Excel package in planning and monitoring project implementation.

21. Possibilities of using the MS Project package in planning and monitoring project implementation.

22. Comparative characteristics of project management software.

23. Means of automated project development.

24. Management of business projects.

25. The place and role of project management in national programs.

26. The essence and content of communications management in the project.

27. Project documents, their form, classification, requirements for them.

28. Planning information communication in the project.

29. Reporting on project implementation.

30. Administrative closure of the project.

31. Forms of labor productivity control.

32. Methods of project cost control.

33. Characteristics of the factors of compromise decisions.

34. Methodology of making a compromise decision.

35. Reference (base) plan of the project.

36. Performance indicators.

[1] Methodical council of the university - for general university disciplines.