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Aeronautical Engineering

Language of instruction

english, lithuanian

Qualification degree and (or) qualification to be awarded

Master of Engineering Sciences

Place of delivery

Kaunas, K. Donelaičio g. 73, LT-44249

Institution that has carried out assessment

No data

Institution that has performed accreditation, accreditation term

Studijų kokybės vertinimo centras, 5/30/2030

Data provided or updated (date)

4/14/2025

Order on accreditation

SV6-27
More about programme

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Summary of the Profile

Objective(s) of a study programme:

The interdisciplinary programme is used to prepare highly- qualified engineers in aeronautics, able to evaluate, solve problems related to design and application of conventional and unmanned aircrafts, rockets and space satellites.

Description of the study programme: https://admissions.ktu.edu/programme/m-aeronautical-engineering/

Learning outcomes:

Knowledge and its Application:

Able to link the theory of aeronautics, mathematics and technology sciences during solution of new engineering challenges;
Able to describe the airworthiness requirements of aircraft and spacecraft, methods for assessment of the reliability and safety of their functional systems and elements, and able to apply them in practice;
Able to reveal the importance of the latest theoretical and experimental research achievements and the introduction of advanced technologies in aeronautics, and the ability to critically assess them.

Special (engineering analysis and design) Skills:

Able to create and apply mathematical models for analysis of aeronautical objects and processes and select the appropriate software;
Able to perceive, clearly formulate and solve engineering issues of aircraft and spacecraft, their components and systems in a new or unfamiliar situation;
Able to perceive the importance of social, health, safety and commercial regulations, as well as legislation aspects of exploitation of the air and space by investigating the aeronautical processes;
Able to design aircraft, spacecraft and their systems or elements in the absence of detailed and technically defined information and to prepare design documentation;
Able to develop and propose scientifically substantiated, task-specific and competitive design solutions of aeronautical systems, services, and control;
Able to innovatively apply original engineering ideas and develop the methods for determination and optimization of the design and performance of aircraft, spacecraft, and their components.

Research Skills and Practical Activities:

Able to identify, analyze and systematize the necessary data using databases and information sources, critically evaluate and draw conclusions;
Able to plan and conduct analytical and experimental research of aircraft, missiles and satellites, their systems and technological processes, process, assess and interpret the obtained results;
Able to determine the applicability and limits of the methods, techniques and tools in applied research in aeronautics;
Able to integrate relevant knowledge in aeronautical, electrical and electronics as well as mechanical engineering and solve multiple engineering problems;
Able to initiate and execute design or modernization projects for aircraft and spacecraft, their systems and components and select the appropriate methods, software and hardware;
Able to describe the ethical and commercial requirements of engineering activities and the ability to evaluate the engineering activity in terms of occupational safety and environmental protection.

Personal (decision-making, lifelong learning, cooperation and teamwork) Skills:

Able to independently plan the learning process, choose the improvement direction in aeronautics or other field;
Able to convey summarized personal/global scientific and engineering experience and knowledge in aeronautical engineering to the specialists and general public;
Able to communicate and cooperate on an international level with (non-)aeronautical specialists and business representatives and assume personal and team responsibility for the quality of engineering activities;
Able to identify the aspects of project management and business, assesses the risks of technological solutions and their economic consequences.

Activities of teaching and learning:

The studies include classroom work (lectures, practical work, laboratory work, seminars, outgoing visits to enterprises, etc.) and individual work for mastering theoretical material, preparation for classroom work, intermediate and final assessments and performing other activities. The studies of each study module are completed by the assessment of the student’s knowledge and skills – an examination or another final assessment; the study programme is completed by the final degree project and its defence.

Methods of assessment of learning achievements:

The applied cumulative assessment system of the learning outcomes ensures constant and involving work of students during the entire semester of studies; the final evaluation of the study module consists of the sum of the grades of intermediate assessments and the final assessment multiplied by the weighting coefficients (percentages of components).

Study subjects (modules):

Aircraft and their Systems Investigation, Computational Aerodynamics, Design of Aircrafts and Unmanned Aerial Vehicles, Computational Solid Mechanics, Flight Control and Management Systems, Research Project 1, Engineering Projects Management, Process Modelling for Unmanned Aircraft Systems, Research Project 2, Master’s Degree Final Project.
Electives: Advanced Sensors and Condition Monitoring, Virtual Prototyping, Unmanned Aerial Vehicle Perception, Monitoring and Data Processing, Telecommunications and Navigation, Structural Integrity of Aircraft Structures, Stability and Control of Aircraft, Space Environment and Orbits, Rocket Technology and Motion, Reliability and Safety Assessment of Aircraft, Management and Security of Unmanned Aircraft Systems, Experimental Techniques and Non-Destructive Testing, Design and Production of Composite Structures.

Study programme abstract:

A graduate has knowledge of aeronautical engineering, is able to identify and solve reliability, functional issues of the systems and components of aviation and space aircrafts, to evaluate and forecast their condition and behaviour, conduct the research enabling the performance of engineering and research activities in aviation organisations and research institutions.

Access to professional activity:

The graduate can perform research, analytical, advisory and managerial work in the fields of design and application of aviation and space aircrafts and their systems.

Access to further study:

S/he has access to the third cycle studies.