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Civil Engineering

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  • GAVUSIEMS KVIETIMĄ STUDIJUOTI
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  • Išankstinis priėmimas
  • Priėmimo datos
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  • Konkursinio balo sandara
  • Leidinys apie bakalauro studijas 2026 m.
  • Teisės aktai
  • Stipendijos stojantiesiems
Full-time studies
  • Full-time studies
  • Part-time, distance learning studies
Full-time studies
Part-time, distance learning studies
  • Department
    Faculty of Civil Engineering
  • Program code
    6121EX039
  • Field of study
    Civil Engineering
  • Qualification
    Bachelor of Engineering Sciences
  • Duration
    4

This programme prepares highly knowledgeable, innovative, and motivated civil engineers.

Fun fact

The colonization of new planets will only be possible with the expertise of construction engineers. Did you know the most widely used artificial material in construction—concrete—was first created around 2000 BC?

Every new structure changes the face of the world.

About

Students learn to design buildings and structures using the latest design tools and calculation methods, to modernize construction technologies, and to effectively organize and manage design and construction processes.

Main Study Modules

  • Reinforced Concrete Structures

  • Steel Structures

  • Basics of Structural Mechanics and Elasticity Theory

  • Reinforced Concrete Transport Structures

  • Foundation Design

“An excellent study programme where I learned to work independently, analyze engineering problems, and make confident decisions. I am proud to have completed this bachelor’s degree—finding a job is easy thanks to the wide range of opportunities in the construction sector.”
Graduate
  • What will I be able to do?

    Graduates of the programme will be able to:
    • Design buildings and structures using modern design principles, calculation tools, and construction technologies
    • Perform and assess geotechnical investigations
    • Select effective technical solutions and problem-solving strategies
    • Organize and manage construction processes, optimize the use of materials and resources, reduce labor costs, and carry out economic evaluations of projects
    • Evaluate the suitability of materials and structures, select the correct calculation methods, and prepare or lead building and structural design projects using advanced computer-aided design software
    • Manage building design processes by applying Building Information Modeling (BIM) principles
    • Assess building and structural quality, ensure fire, civil, and occupational safety, and apply innovative construction materials and solutions
    • Solve geotechnical design and construction challenges, apply appropriate technical and technological solutions, and supervise design and construction processes.

  • What are my career opportunities?

    Graduates are well-prepared for careers in building and structural design, construction, geotechnical engineering, project supervision, and technical expertise.
    Possible career directions include:
    • Working in companies involved in building and structural design, construction, and supervision
    • Participating in geotechnical design and the execution of geotechnical works
    • Providing professional expertise and technical assessments for construction projects
    • Establishing and growing your own business in the civil engineering sector.

Study subjects

1 - 2 Semesters
  • 1 - 2 Semesters
  • 3 - 4 Semesters
  • 5 - 6 Semesters
  • 7 - 8 Semesters
1 - 2 Semesters
3 - 4 Semesters
5 - 6 Semesters
7 - 8 Semesters

1 Semester

obligatory
  • FMMMB16101 6 credits

    Algebra and Differential Calculus

    Study subject aim

    To introduce basics of linear algebra, analytical geometry and differential calculus

    Study subject description

    The course covers the elements of linear algebra (matrices, determinants, systems of linear equations), analytical geometry (vectors, straight lines, planes) and differential calculus of functions of one variable (limits, derivatives, investigation of functions). The questions of their practical application are touched upon.
    Students must attend at least 60% of the time scheduled practical works (full-time studies and part-time, distance learning studies) and 50% of the lectures (only full-time studies).

  • FMIGB24000 6 credits

    General Engineering and Digital Graphics

    Study subject aim

    To present the general engineering and computer graphics fundamentals necessary in civil engineering design. To acquaintance with basic methods of general descriptive geometry, principles of orthographic projections, design methods, to introduce with modern computer aided design systems. Projection drawing. Views, arrangement of views in drawings. Simple and complex sections.

    Study subject description

    While studying the subject, the concept of engineering graphics was presented during the semester. The subject provides knowledge on how to use graphic tools in the preparation of engineering documentation, will be able to find and use suitable standards, and will understand how to apply appropriate information technologies. The combination of theory and practice will help to understand the possibilities of applying CAD systems in the preparation of technical drawings, paying attention to the requirements of the standards. The subject will not only introduce the basic methods of representing spatial objects on a plane and in space. Still, it will also encourage creative thinking when making appropriate decisions for drawing up a technical document.
    Students are required to attend at least 80% of the practical and laboratory classes at the scheduled time during the semester. Mandatory minimum attendance of module lectures – 50%.

  • FMFIB16124 6 credits

    Physics

    Study subject aim

    To give knowledge about basic interactions in nature, gravitational, electrical and magnetic fields, nature of mechanical and electrical phenomena and processes, states of solid and gaseous material, to educate skills of scientific thinking, to teach how to estimate theoretically and experimentally data and reliability, to prepare for the engineering studies.

    Study subject description

    Physics, the subject of the study, is a combination of theory and practice, designed to provide students with understanding of fundamental mechanics, molecular physics and thermodynamics, electrostatics, electrodynamics, electromagnetism, optics and atomic physics, all needed for civil engineering studies. The knowledge is provided about mechanical oscillations and vibrations and their manifestation in engineering devices and construction structures, thermal phenomena, electrical and magnetic parameters, electrical measuring devices. The ability to interpret and efficiently explain the results of experimental research obtained in laboratories is developed.
    Students are required to attend more than 50% of scheduled lectures and at least 60% of scheduled practical work, as well as to complete all laboratory work.

  • FMCHB16101 3 credits

    Chemistry

    Study subject aim

    To enable students to seek basic chemical knowledge in shaping their concept of their application in practical and professional activities.

    Study subject description

    It is a set of theoretical knowledge and practical skills that help to understand thermodynamic and kinetic methods of predicting systems, the formation of solutions and their properties, oxidation-reduction processes occurring in electrochemical devices, electrolysis and corrosion of metals, which are very important in the field of environmental engineering. It is important to recognize in which field of civil engineering what chemical processes or phenomena take place and how to use them correctly and usefully for effective work in this field.
    Students must attend at least 80 % of the time scheduled laboratory work and at least 50 % of theoretical lectures.

  • KIFSB17108 3 credits

    Philosophy

    Study subject aim

    The course is intended to introduce students to the basic problems of philosophy and to provide with skills for critical thinking.

    Study subject description

    The course examines the origin of philosophy and the role of philosophy in the development of European cultural history. Course presents the topics of being, the nature of things and ideas, knowledge, the relationship between science and philosophy, the human place in cosmos, in a society and in the state. The main focus is placed upon antique philosophy and its subsequent interpretations.
    Students must attend at least 60 percent of the seminars and at least half of the lectures at the scheduled times

  • STGGB17026 3 credits

    Introduction to Specialty

    Study subject aim

    To introduce students to the studies in civil engineering, to provide knowledge about the peculiarities of the professional activity of civil engineering specialists, the development of the science of civil engineering and the principles of modern construction of buildings and construction technologies.

    Study subject description

    Study at the University, study program and its specialization. General knowledge of buildings, their classification and design solutions, building structures, materials used in construction, principles and methods of building design. Introduction to the modern building technologies. Meetings with representatives of different construction processes, visiting of modern construction objects and factory of building structures.
    This course cover micro-course: Green and friendly house building materials based on waste.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

one of the following
  • KIUSB17101 3 credits

    English Language

    Study subject aim

    To help students develop linguistic and communicative skills, acquire knowledge according to CEFR B2-C1 level in order to communicate spontaneously both in written and spoken forms on daily, cultural and professional topics.

    Study subject description

    The course covers an important aspect of academic language study relevant to all subject areas. The aim of the course is to reach a high (B2-C1) level of English to study in an academic institution. The course is aimed at the first-cycle students with B1-B2 level of English. The integrated skills course will develop students’ reading, writing, listening and speaking skills in an academic context. It will enable students to prepare assignments, write a research paper in English. Participation in at least 60% of the scheduled exercises is mandatory.

  • KIUSB17105 3 credits

    French Language

    Study subject aim

    To help students develop linguistic and communicative skills, acquire knowledge according to CEFR B2-C1 level in order to communicate spontaneously both in written and spoken forms on daily, cultural and professional topics.

    Study subject description

    The course covers an important aspect of academic language study relevant to all subject areas. The aim of the course is to reach a high (B2-C1) level of French to study in an academic institution. The course is aimed at the first-cycle students with B1-B2 level of French.The integrated skills course will develop students’ reading, writing, listening and speaking skills in an academic context. It will enable students to prepare assignments, write a research paper in French. Participation in at least 60% of the scheduled exercises is mandatory.

  • KIUSB17103 3 credits

    German Language

    Study subject aim

    To help students develop linguistic and communicative skills, acquire knowledge according to CEFR B2-C1 level in order to communicate spontaneously both in written and spoken forms on daily, cultural and professional topics.

    Study subject description

    The course covers an important aspect of academic language study relevant to all subject areas. The aim of the course is to reach a high (B2-C1) level of German to study in an academic institution.The course is aimed at the first-cycle students with B1-B2 level of German.The integrated skills course will develop students’ reading, writing, listening and speaking skills in an academic context. It will enable students to prepare assignments, write a research paper in German. Participation in at least 60% of the scheduled exercises is mandatory.

2 Semester

obligatory
  • FMISB16106 6 credits

    Information Technologies

    Study subject aim

    Provide a basic understanding about information processing patterns and the tools.
    Students must attend at least 80% of the time scheduled laboratory work. Students must complete all the prescribed laboratory work

    Study subject description

    The module on a deeper examination of information technology. Course structure includes the following science topics:
    Basic science concepts and definitions. Informatics structure. Information, data and knowledge. Information properties. Information Systems. Information systems characteristics. Types of information systems, structure and classification. Mathematical computer basics. Boolean algebra. Boolean functions. Logic Circuits. Logical operation of computer basics. Machine types and their characteristics. Classical computer architecture. Software. Operating systems, their purpose and structure. Operating systems. Networks. Data transmission technologies.
    Students must attend at least 60% of the time scheduled practical lectures.Mandatory minimum attendance of module lectures – 50%.

  • FMMMB16201 6 credits

    Integral Calculus

    Study subject aim

    The aim of this course is to provide the knowledge from integral calculus, to achieve the ability to analyze situation, to choose the appropriate problem solving method, to present and clarify the obtained results, to develop the ability use the knowledge and practical abilities in the study process.

    Study subject description

    Integral calculus of functions of one variable: anti-derivatives, indefinite and definite integrals, the basic definitions, methods of integration, the properties of indefinite and definite integrals, Newton-Leibnitz formula, applications of definite integrals, multivariable functions, double and line integrals, ordinary differential equations and their solutions.

    Students must attend at least 60% of the time scheduled practical works (full-time studies and part-time, distance learning studies) and 50% of the lectures (only full-time studies).

  • STGGB17268 6 credits

    Applied Physics

    Study subject aim

    To provide basic building physics knowledge about building climatology, thermal physics, building and architectural acoustics, natural and artificial lighting.

    Study subject description

    The building physics course consists of three parts: thermodynamics, building acoustics and lighting technology. The thermodynamics part deals with ensuring the building’s energy efficiency. In the part of building acoustics, the issues of realizing the acoustic comfort of the building are discussed. In the light technique part, the basics of natural and artificial indoor lighting are introduced.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 80% of the exercises and complete all scheduled laboratory work.

  • APGDB16054 3 credits

    Engineering Geodesy

    Study subject aim

    Gaining knowledge of mathematical models of the Earth, coordinates and elevation systems. Learning to read maps, topographical plans. To be able to select the appropriate measurement method and apparatus engineering geodetic surveying tasks.

    Study subject description

    In the study subject of engineering geodesy, knowledge is gained about geodesy science, geodetic measurements, topographical, control geodetic photographs, other geodetic works in the construction sector. The ability to perform the inspection of geodetic devices and measurements of individual elements in laboratory conditions is provided, as well as to solve geodetic tasks and perform other work in the field of geodesy.
    Students must participate in at least 60% of exercises during the scheduled time and must complete all laboratory work.

  • APGDB22001 3 credits

    Practice of Engineering Geodesy

    Study subject aim

    Apply geodetic knowledge in practice, form plans for various purposes based on measurements and solve geodetic tasks.

    Study subject description

    Students apply theoretical knowledge in practical measurements. Based on the measurement data, they form a topographic picture, make a road profile, site design work, learn to solve various geodetic tasks.
    Students must participate in at least 60% of exercises during the scheduled time and must complete all laboratory work.

  • FMIGB24002 3 credits

    Object-Oriented, Parametric Modeling BIM 1

    Study subject aim

    To introduce the basic princips of building information model (BIM) and it’s management requirements, using computer-aided design systems. After completing this course will be able to read and understand building construction drawings. To present general engineering and computer graphics fundamentals necessary in civil engineering design. To provide with knowledge how engineering graphics methods are applied in building information modeling (BIM) design.

    Study subject description

    Building Information Modelling (BIM) application using engineering graphics software. Building information modeling computer software, and it’s features for civil engineering. Parametric modeling of building elements and their descriptive information. Preparation of building three-dimensional models. Building element and construction (concrete, metal, wood) detailing using building information modeling tools. Preparation of the drawings. Views arrangement in the drawings. Construction drawing. Material schedules and bill of materials. Building plan, section, elevation formation. Building construction drawings. Reinforced concrete, metal, wood, geotechnical design and detailing drawings. BIM and CAD data management and standards. The building structure design schemes. Plotting graphs and using them in documents.
    Students are required to attend at least 80% of the practical and laboratory classes at the scheduled time during the semester.

one of the following
  • KIUSB17116 3 credits

    Speciality English Language

    Study subject aim

    To help students acquire and develop linguistic and professional communicative skills as well as relevant knowledge so that the future specialists are able to use their acquired competences and analyse information, communicate in spoken and written language in their everyday, academic and Professional situations.

    Study subject description

    The course is targeted at the development of Civil Engineering, Architectural Engineering, Construction Technology and Management students’ C1 level of the English Language competences, for further development of skills gained in the course English Language for communication in both daily and professional situations. The course develops the independent user’s language skills, professional vocabulary, the correct technical and scientific language usage knowledge, abilities to analyse and summarize speciality literature, effective academic presentation skills. Participation in at least 60% of the scheduled exercises is mandatory.

  • KIUSB17118 3 credits

    Speciality French Language

    Study subject aim

    To help students acquire and develop linguistic and professional communicative skills as well as relevant knowledge so that the future specialists are able to use their acquired competences and analyse information, communicate in spoken and written language in their everyday, academic and Professional situations.

    Study subject description

    The course is targeted at the development of Civil Engineering, Architectural Engineering, Construction Technology and Management students’ C1 level of the French Language competences, for further development of skills gained in the course French Language for communication in both daily and professional situations. The course develops the independent user’s language skills, professional vocabulary, the correct technical and scientific language usage knowledge, abilities to analyse and summarize speciality literature, effective academic presentation skills. Participation in at least 60% of the scheduled exercises is mandatory.

  • KIUSB17117 3 credits

    Speciality German Language

    Study subject aim

    To help students acquire and develop linguistic and professional communicative skills as well as relevant knowledge so that the future specialists are able to use their acquired competences and analyse information, communicate in spoken and written language in their everyday, academic and Professional situations.

    Study subject description

    The course is targeted at the development of Civil Engineering, Architectural Engineering, Construction Technology and Management students’ C1 level of the German Language competences, for further development of skills gained in the course German Language for communication in both daily and professional situations. The course develops the independent user’s language skills, professional vocabulary, the correct technical and scientific language usage knowledge, abilities to analyse and summarize speciality literature, effective academic presentation skills. Participation in at least 60% of the scheduled exercises is mandatory.

3 Semester

obligatory
  • STTMB17047 6 credits

    Integral Mechanics

    Study subject aim

    To acquire and assimilate knowledge about behaviour of mechanical objects under action of forces at known boundary and initial conditions. To understand main fundamental principles of statics and dynamics. To learn solving practical problems of mechanics. Introduce students to theoretical and practical principles of engineering methods for calculating strength and stiffness of structural members under simple loading. Prepare students for further structures design studies.

    Study subject description

    The module is aimed to provide knowledge about the basic laws and principles of solid mechanics. Emphasizing the state of static equilibrium (statics) of a rigid body, students are also introduced to the basics of kinematics and dynamics.
    Knowledge is provided about the types of deformation of structural members (rods, beams, shafts), the technique of calculating internal forces, stresses and deformations in cases of simple deformation (tension-compression, bending, torsion). Practical skills for determining reactional forces, strength and stiffness parameters (stresses, displacements, strains) are developed. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17271 6 credits

    Building Architecture and Structures

    Study subject aim

    To provide knowledge about the spatial and constructional structure of various buildings and structural systems.

    Study subject description

    Spatial and constructional structure of buildings, classification, elements and their interaction. Low-rise and multi-story buildings: foundations, walls, ceilings, floors, stairs, roofs. Structural systems of frameworks, large spacious and high-rise buildings and their elements, structural solutions.
    This course cover micro-course: Material choice in designing low-carbon concrete structures.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • FMMMB16301 6 credits

    Probability Theory and Mathematical Statistics

    Study subject aim

    To introduce basics of probability theory and mathematical statistics, to train a student to use obtained knowledge for solving of real world problems.

    Study subject description

    The basic probability theory concepts and theorems. The distribution functions of random variables and numerical characteristics. The problems of mathematical statistics. Empirical characteristics. The point and interval estimates of unknown parameters. Statistical hypothesis testing, elements of correlation theory, regression.

    Students must attend at least 60% of the time scheduled practical works, 80% of the time scheduled laboratory works (full-time studies and part-time, distance learning studies) and 50% of the lectures (only full-time studies).

  • STGGB17272 3 credits

    Building Architecture and Structures (course work)

    Study subject aim

    Architectural plan and structural design of a building.

    Study subject description

    Architectural plan and structural designs: foundtions, walls, slabs, beams and lintels, roof and other structures. Graphical execution of plans, sections, detals and junctions. Preparation of explanatory note.
    Students must attend at least 80% of the time scheduled practical lectures.

  • ELEIB16206 3 credits

    Smart Electrical and Electronics Systems of Buildings

    Study subject aim

    Provide electrical engineering knowledge, develop the ability to creatively analyse and solve electrical issues.

    Study subject description

    The module is designed to get acquainted with the basic laws and devices of electrical engineering and electronics. BIM capabilities in electrical engineering.
    at least half of the lectures at the scheduled times

    Students must complete at least 80% of the laboratory work in the time provided in the schedule.

one of the following
  • KIPIB17020 3 credits

    Creative Processes in Engineering

    Study subject aim

    To introduce students with the creative processes manifesting in engineering. Help them to gain practical and analytical skills in this area.

    Study subject description

    During the course, the students will be introduced to the engineering and its evolution, as well as the creative process, manifesting in engineering. It will be analyzed in detail the specific branches of engineering, considering manifestations of creativity in particular engineering objects and creative processes manifested in them.
    Students are required to attend at least 50 % of the theoretical lectures.

  • STGGB23104 3 credits

    History of Building Art

    Study subject aim

    Introduce students into the evolution of architecture and construction, highlighting each period’s methods of construction.

    Study subject description

    Universal architecture and construction evolution from the oldest till present times, with focus on each period’s methods of
    construction.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 80% of the exercises.

  • KIKOB17047 3 credits

    Public Communication

    Study subject aim

    The aim of the course is to introduce the theoretical and practical aspects, issues and applications of public communication.

    Study subject description

    Public Communication course aims to introduce personal branding, corporate communication, communication with clients and internal communication, the students who have chosen studies of engineering sciences, computer sciences, technology sciences, mathematics sciences. Students learn how to present themselves and their ideas, better speak in public, to make good and convincing points, to better use the internet and social media for their professional goals, also to understand cross-cultural communication. The importance of media channels, messages and communication to target audiences are also introduced in the course. Through practical tasks for personal branding, students will learn how to adopt public ethics, protocol standards. In this course an approach of learning by doing is combined with theoretical analysis and students’ self-reflection. The practical part of the course consists of active participation in discussions during different exercises, case studies as well as preparation and presentation of public speeches and presentations.
    Participation in at least 60% of the scheduled exercises is mandatory. Lecture attendance is at least 50%

Free choice
  • 3 credits

    Free choice module

4 Semester

obligatory
  • STGSB17174 6 credits

    Materials Science and Building Materials

    Study subject aim

    Introduce students to products manufactured for building construction, introduce them to their structure, production principles and properties, as well as an understanding of the main methods used to study products and the ability to apply these products in construction according to their purpose.

    Study subject description

    Loads of various purpose products are used in building construction, each of them made from different raw materials using specific manufacturing processes. Produced products are characterized by unique properties. These properties are determined using standardized and reliable methods. Considering all of this: product properties, purpose, end-user’s expectations, building materials are used for various purpose building construction and good health creation. Obtained knowledge and skills will help to not get lost in the vastness of available information and make reliable decisions when working in the building industry. Students are required to complete all scheduled laboratory work. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STTMB17053 6 credits

    Mechanics of Materials

    Study subject aim

    To provide the knowledge and to develop the engineering skills for analyzing strength and stiffness of deformable elements subjected to combined loading and computing skills for analysis of rods subjected to specific effects, to prepare for the studies of structural design.

    Study subject description

    The study module is intended to provide professional knowledge and understanding of engineering methods for calculating the strength, stiffness and stability of structural members. By studying this module, students will acquire theoretical knowledge and practical skills about the methods of calculating the stiffness of beams, the methods of calculating internal forces, stresses and strains in case eccentric tension-compression, oblique bending, bending with rotation and other types of combined loading, will be able to evaluate the buckling of compressed elements as well as.
    Also, students will be introduced to the calculation of structural members under dynamic (incl. cyclic) loading, as well as the basics of fracture mechanics. Students must attend at least 70% of the time scheduled practical exercises and 100% laboratory works. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STVNB17303 6 credits

    Technology of Construction Processes

    Study subject aim

    Providing information on construction technology and developing skills of practical application of the acquired knowledge.

    Study subject description

    Knowledge on technology of construction processes is provided; construction phases, approaches and processes are analysed, technology of construction processes and its relationship with other disciplines, evolution of construction and its future; types of piles and deepening forms, hammering piles and ensuring their quality, installation of wringing pits, works withmoulds; reinforcement forms, their connection principles, their products, reinforcement of not tightened constructions, tightening of reinforcement, reinforcement of prestressed constructions, production of, feeding of concrete mix to falsework and consolidation of concrete mix.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17030 3 credits

    Basis of Structural Design

    Study subject aim

    To provide theoretical knowledge of loads and action and their practical skills to designings buildings and structures. Teach to design stresses combination.

    Study subject description

    Knowledge about the management of the reliability of building and assessment of loads and action during the design of a building.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 70% of the exercises.

  • VVEIB17198 3 credits

    Economics

    Study subject aim

    To provide the fundamentals of economic knowledge and the skills to apply them in professional activities.

    Study subject description

    During the couse of Economic theory student study economic theory: micro and macroeconomics, economic issues and objectives. The measurement of individual markets: supply and demand balance and its elasticity. Analyzes the market competition models: perfect and imperfect competition. Study what the consumer and producer behavior in the market, what are the costs and benefits, how they are calculated.Study, how measured by production volume – national product. Analysis of cyclical fluctuations, fiscal policy, monetary policy, unemployment and inflation, anti-inflation and stabilization policies.
    Students must attend at least 60 % of the time scheduled exercises.

  • STGGB17173 3 credits

    Engineering Geology

    Study subject aim

    An understanding of geological processes and their influence in design and construction.

    Study subject description

    Earth structure, composition and origin. Minerals and rocks. Earth’s interior and exterior geological processes. Geological structures. Tectonic processes. Development of Earth crust. Clasification of minerals, rocks and soils. Physical and mechanical features of soils. Origin and types of groundwater, physical and chemical properties. Flow of groundwater. Polution of soil and groundwater. Weathering. Eolian processes. Glaciation, deglaciation, related processes and surface forms. Water-erosion (fluvial, karst), seasonal and permafrost processes. Mineral deposits of Lithuania.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. Students must complete all scheduled laboratory work within the time specified in the schedule.

Free choice
  • 3 credits

    Free choice module

5 Semester

Specialization: Geotechnics
obligatory
  • STGGB17175 6 credits

    Soil Mechanics

    Study subject aim

    General knowledge on soil basement physical and mechanical properties, their determination principles, their variation per time, application for general geotechnical problems: strength and stability of foundations, pressure to retaining walls, stability of slopes.

    Study subject description

    Abilities to select and analyze geotechnical information, based on of performed analysis to select the most expedient alternatives of geotechnical structures.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 60% of the exercises and complete all scheduled laboratory work.

  • STMEB24502 6 credits

    Integrated Project (Steel and Timber Structures; Building Engineering Systems)

    Study subject aim

    To develop the skills on the design of timber and steel buildings and engineering systems.

    Study subject description

    The course project is designed to provide students with basic knowledge about the design and construction of steel and wooden structures. The module includes the composition of the calculation scheme of a single-story structure, the calculation of loads and effects. Students will learn to select cross-sections of supporting structural elements, construct connections, and prepare drawings. The second part of the module introduces the design process of Heating, Ventilation and Water supply and sewage engineering systems, selection of equipment, construction of systems, application of necessary legal documents and completion of drawings.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STMEB17024 6 credits

    Steel and Timber Structures

    Study subject aim

    To develop an advanced understanding and knowledge of the behavior and design of steel and timber structures and their connection systems.
    Students must attend at least 60% of the time scheduled practical lectures.

    Study subject description

    During the study of module, the knowledge about steel and timber as building materials is gained. Timber and steel are analyzed as load bearing materials in terms of ULS (Ultimate Limit States) and SLS (Serviceability Limit States). Innovative connection design solutions are presented during the course. The module is oriented to frames, arches, trusses, domes and its design methods.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STTMB17103 6 credits

    Structural Mechanics and Fundamentals of Elasticity Theory

    Study subject aim

    To teach fundamentals of structural design.

    Study subject description

    While studying “Structural Mechanics and Fundamentals of Elasticity Theory”, students will gain knowledge about principles and methods of structural analysis applied for bar systems and continuous constructions (deep-beams, bending plates). They will learn to apply the basic principles in simplifying and solving problems of structural mechanics, to verify the obtained results and to apply the acquired knowledge for the analysis of more complex structures. This course aims at gradually developing computational skills and the comprehensive application of structural mechanics to analyze and solve practical engineering problems. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • APPEB16536 3 credits

    Building Services

    Study subject aim

    Acquaintance students with the building plumbing systems: heating and ventilation, cold and hot water, wastewater and rainwater; design principles, construction and maintenance.

    Study subject description

    There are analysed main solutions building services: heating, cooling, ventilation, cold and hot water supply, sewage and energy supply system’s; location of their equiment in abuilding; interaction between architectural solution and building services, influence on energy demand of a building and indoor climate. Students must participate in at least 60% of the practice listed in the timetable.

  • STVNB17063 3 credits

    Construction Economics

    Study subject aim

    The aim of the course – to introduce the students to the theory and analysis methods of construction economics, and to provide the analytical and practical work skills necessary to analyze the construction projects from an economic point of view.

    Study subject description

    The course introduces construction economics in the context of macro- and microenvironment. It includes topics on the characteristics of the construction sector, the significance of construction in the national economic system, construction projects’ influencing factors, construction market features, demand and supply, pricing and construction financing methods, international construction development trends, and construction economics in the context of sustainable development. The theory and methodology of the subject are mastered during lectures, by studying professional literature and interactive sources, discussions, and solving practical tasks. Special and general skills are developed during students’ homework, which includes the generation of ideas for construction projects, selection of a plot of land and a building project, cost estimates of construction, and calculation of the selling price and profit.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

Specialization: Design of Buildings and Structures
obligatory
  • STGGB17031 6 credits

    Reinforced Concrete Structures 1

    Study subject aim

    To give knowledge about the behavior of concrete and reinforced concrete structures, to develop the ability to calculate the resistance and to calculate the reinforcement of the concrete structures and to carry out the detailing of reinforced concrete structures.

    Study subject description

    Knowledge about concrete and reinforcement strength and deformation characteristics, concrete and reinforcement behavior in reinforced concrete elements. It is taught to calculate the resistance of bending, tensile and compressive reinforced concrete members. The ability to calculate the longitudinal and transverse reinforcement of reinforced concrete structures and to carry out the detailing of reinforced concrete elements. A general understanding of the essence the pre-stressed concrete elements.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises and complete all scheduled laboratory work.

  • STGGB17032 6 credits

    Integrated Project (Reinforced Concrete Structures 1; Steel Structures 1; Building Services)

    Study subject aim

    The main aims of course project: provide knowledge about behaviour of monolithic reinforced concrete ribbed slabs, estimation of acting loads, calculation of internal forces and the basics of engineering building sysrems. To train skills to calculate necessary reinforcement and make detailing for reinforced concrete structures, to design steel beams and axial loaded columns and joints for them.

    Study subject description

    Composing and design of monolithic reinforced concrete ribbed slabs and complex steel grilliges and steel columns design the basics of engineeeing building systems, will be executed in course project. Skills for calculation of actions and internal forces acting in reinforced concrete slab, beams and steel grillage will be gained. Calculations of necessary reinforcement in concrete slab and beams, detailing of reinforcement, design of steel beams cross-sections and detailing of connections and calculation of bearing capacity will be included in project. Detailed drawings for both cases of structures will be prepared. The subject analyses the basics of engineering building systems – heating, cooling, ventilation, hot and cold water supply, sewage disposal, power supply systems – basic structural solutions; equipment placement in the building; the interoperability of the architectural-planning solution of the building and engineering systems, the influence of the building’s energy needs and the microclimate of the premises.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STMEB17022 6 credits

    Steel Structures 1

    Study subject aim

    Steel structure forming members and their connections to the design, according to European and international standards, the necessary knowledge and skills to be granted. To develop abilities to apply that knowledge to update them on a permanent basis, taking into account the emerging structural design tools and techniques. Empowered with knowledge and skills must be the basis for building and structural systems design skills to acquire.

    Study subject description

    Module covers the first part of course for design of steel structures. Introduction into materials and assortment of steel products used in manufacture of steel structures will be provided. Collecting and combining of loads will be presented in short. Basic knowledges about connection means and their behaviour and application are included in a module. Design procedures for simple structural members – beams, columns and beam-columns – will be presented in this course. Theoretical knowledges will be solidifying ones during laboratory and practical lectures.
    Students must complete all the laboratory activities scheduled.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STTMB17103 6 credits

    Structural Mechanics and Fundamentals of Elasticity Theory

    Study subject aim

    To teach fundamentals of structural design.

    Study subject description

    While studying “Structural Mechanics and Fundamentals of Elasticity Theory”, students will gain knowledge about principles and methods of structural analysis applied for bar systems and continuous constructions (deep-beams, bending plates). They will learn to apply the basic principles in simplifying and solving problems of structural mechanics, to verify the obtained results and to apply the acquired knowledge for the analysis of more complex structures. This course aims at gradually developing computational skills and the comprehensive application of structural mechanics to analyze and solve practical engineering problems. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • APPEB16536 3 credits

    Building Services

    Study subject aim

    Acquaintance students with the building plumbing systems: heating and ventilation, cold and hot water, wastewater and rainwater; design principles, construction and maintenance.

    Study subject description

    There are analysed main solutions building services: heating, cooling, ventilation, cold and hot water supply, sewage and energy supply system’s; location of their equiment in abuilding; interaction between architectural solution and building services, influence on energy demand of a building and indoor climate. Students must participate in at least 60% of the practice listed in the timetable.

  • STVNB17063 3 credits

    Construction Economics

    Study subject aim

    The aim of the course – to introduce the students to the theory and analysis methods of construction economics, and to provide the analytical and practical work skills necessary to analyze the construction projects from an economic point of view.

    Study subject description

    The course introduces construction economics in the context of macro- and microenvironment. It includes topics on the characteristics of the construction sector, the significance of construction in the national economic system, construction projects’ influencing factors, construction market features, demand and supply, pricing and construction financing methods, international construction development trends, and construction economics in the context of sustainable development. The theory and methodology of the subject are mastered during lectures, by studying professional literature and interactive sources, discussions, and solving practical tasks. Special and general skills are developed during students’ homework, which includes the generation of ideas for construction projects, selection of a plot of land and a building project, cost estimates of construction, and calculation of the selling price and profit.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

Specialization: Design of Bridge Structures
obligatory
  • STGGB17031 6 credits

    Reinforced Concrete Structures 1

    Study subject aim

    To give knowledge about the behavior of concrete and reinforced concrete structures, to develop the ability to calculate the resistance and to calculate the reinforcement of the concrete structures and to carry out the detailing of reinforced concrete structures.

    Study subject description

    Knowledge about concrete and reinforcement strength and deformation characteristics, concrete and reinforcement behavior in reinforced concrete elements. It is taught to calculate the resistance of bending, tensile and compressive reinforced concrete members. The ability to calculate the longitudinal and transverse reinforcement of reinforced concrete structures and to carry out the detailing of reinforced concrete elements. A general understanding of the essence the pre-stressed concrete elements.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises and complete all scheduled laboratory work.

  • STGGB17035 6 credits

    Integrated Project (Reinforced Concrete Structures 1; Steel Structures 1)

    Study subject aim

    The main aims of course project: provide knowledge about behaviour of monolithic reinforced concrete ribbed slabs, estimation of acting loads, calculation of internal forces and to train skills to calculate necessary reinforcement and make detailing for reinforced concrete structures, to design steel beams and axial loaded columns and joints for them.

    Study subject description

    Composing and design of monolithic reinforced concrete ribbed slabs and complex steel grilliges and steel columns will be executed in course project. Skills for calculation of actions and internal forces acting in reinforced concrete slab, beams and steel grillage will be gained. Calculations of necessary reinforcement in concrete slab and beams, detailing of reinforcement, design of steel beams cross-sections and detailing of connections and calculation of bearing capacity will be included in project. Detailed drawings for both cases of structures will be prepared.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STMEB17022 6 credits

    Steel Structures 1

    Study subject aim

    Steel structure forming members and their connections to the design, according to European and international standards, the necessary knowledge and skills to be granted. To develop abilities to apply that knowledge to update them on a permanent basis, taking into account the emerging structural design tools and techniques. Empowered with knowledge and skills must be the basis for building and structural systems design skills to acquire.

    Study subject description

    Module covers the first part of course for design of steel structures. Introduction into materials and assortment of steel products used in manufacture of steel structures will be provided. Collecting and combining of loads will be presented in short. Basic knowledges about connection means and their behaviour and application are included in a module. Design procedures for simple structural members – beams, columns and beam-columns – will be presented in this course. Theoretical knowledges will be solidifying ones during laboratory and practical lectures.
    Students must complete all the laboratory activities scheduled.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STTMB17103 6 credits

    Structural Mechanics and Fundamentals of Elasticity Theory

    Study subject aim

    To teach fundamentals of structural design.

    Study subject description

    While studying “Structural Mechanics and Fundamentals of Elasticity Theory”, students will gain knowledge about principles and methods of structural analysis applied for bar systems and continuous constructions (deep-beams, bending plates). They will learn to apply the basic principles in simplifying and solving problems of structural mechanics, to verify the obtained results and to apply the acquired knowledge for the analysis of more complex structures. This course aims at gradually developing computational skills and the comprehensive application of structural mechanics to analyze and solve practical engineering problems. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STVNB17063 3 credits

    Construction Economics

    Study subject aim

    The aim of the course – to introduce the students to the theory and analysis methods of construction economics, and to provide the analytical and practical work skills necessary to analyze the construction projects from an economic point of view.

    Study subject description

    The course introduces construction economics in the context of macro- and microenvironment. It includes topics on the characteristics of the construction sector, the significance of construction in the national economic system, construction projects’ influencing factors, construction market features, demand and supply, pricing and construction financing methods, international construction development trends, and construction economics in the context of sustainable development. The theory and methodology of the subject are mastered during lectures, by studying professional literature and interactive sources, discussions, and solving practical tasks. Special and general skills are developed during students’ homework, which includes the generation of ideas for construction projects, selection of a plot of land and a building project, cost estimates of construction, and calculation of the selling price and profit.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17357 3 credits

    Computer Aided Design of Structures

    Study subject aim

    To provide fundamental theoretical knowledge and to form basic practical skills in designing bridges and roads.
    To provide basic knowledge of bridge and road design methods, possibilities for applying them in design of bridge decks, abutments, piers as well as road horizontal alignment, road structures and other road elements.

    Study subject description

    The studies provide the basic knowledge necessary to form a complex approach to bridge and road design as well as to individual stages of bridge and road design. The most critical aspects of appropriate bridge design are selecting a rational structural system, materials, and basic geometrical dimensions. During the design stages, it is necessary to ensure that the bridge structures will satisfy the requirements of ultimate and serviceability limit states. During the design process of roads, it is essential to properly select the road alignment and the solutions of the road structural elements. The highway being designed must meet the requirements of design code documents.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises.

6 Semester

Specialization: Geotechnics
obligatory
  • STGGB17039 6 credits

    Reinforced Concrete and Masonry Structures

    Study subject aim

    Knowledge about the design of masonry and reinforced concrete structures by applying calculation methods based on ultimate limit states; design of masonry and reinforced concrete structures by applying modern calculation principles; evaluation and selection of proper technical solutions which allow the use of progressive building materials and saves energetic resources.

    Study subject description

    Knowledge about the mechanical properties of concrete, masonry and reinforcing steel; design of masonry and reinforced concrete structures by applying calculation methods based on ultimate limit states; design of masonry and reinforced concrete structures by applying modern calculation principles and using progressive solutions and building materials.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 70% of the exercises.

  • STGGB17180 6 credits

    Geotechnical Investigation and Testing

    Study subject aim

    An understanding and ability of geotechnical investigation and testing.

    Study subject description

    Ability to choose appropriate methods for investigation. Ability to use laboratory and field equipment for soil parameters investigation and interpret data.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. Students are required to complete all scheduled laboratory work.

  • STGGB17182 6 credits

    Integrated Projects (Geotechnical Investigation; Reinforced Concrete Structures; Building Construction Technology)

    Study subject aim

    Present material for design and execution of overground structures and foundations for building, design part of engineering systems.

    Study subject description

    Design of engineering systems for building. For certain construction site and structure type choose amount of geotechnical investigations, evaluate geotechnical situation. Choose technology project for structure.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STGGB17176 3 credits

    Hydrogeology in Geotechnics

    Study subject aim

    To introduce the groundwater dynamics, hydrogeological processes and hydrogeological investigations methods.

    Study subject description

    Understanding of hydrogeological settings, groundwater dynamics features, possible interaction between groundwater and underground constructions. Evaluation of the groundwater flow into the wells, drainage systems and quarry. Evaluation underground water flow in the woter basin and in the areas of hydrotechnical buildings.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises.

  • STVNB17311 3 credits

    Building Construction Technology and Organization

    Study subject aim

    To provide general knowledge about efficient building construction technology and construction management.

    Study subject description

    Effective construction organizing and management, legal regulation of construction, principles of technological documentation, arranging building design, principles of calendar and network scheduling, streamlined approach to construction management, specialization and consistency of construction works, drawing up project of construction organization, engineering site preparation, supplying construction with resources, construction mechanization and management. Efficent preparation of construction site and safety of workers on site solutions. Questions regarding general design principles, management of construction quality, organization of construction companies and scheduling their work are discussed in background of efficient solutions of construction organization.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STTMB17105 3 credits

    Numerical Analysis of Structures - BIM 2

    Study subject aim

    To give knowledge about finite element method. To research design of bar structures displacements and internal forces by finite element method. To give knowledge about solution of various mathematical, mechanical and engineering problems using special software.

    Study subject description

    Calculation and application of nodal displacements and internal forces of structures using the finite element method based on the principle of minimum total potential energy. Analysis and structures optimization of elastic displacements and internal forces using mathematical modeling packages. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGSB17062 3 credits

    Human's Safety and Environmental Protection

    Study subject aim

    To provide knowledge and develop skills to be able to analyze problematic situations and look for alternative solutions,
    assessing possible social and environmental consequences, to familiarize with the solution of safety problems.

    Study subject description

    The legal regulation of human safety is introduced. Natural, technogenic and work environment hazards are annalyzed.
    Mechanisms of impact on humans, ways and means of possible consequences reduction are discussed. Knowledge is provided about environmental pollution caused by human activity and consequences for global pollution. Occupational risk and environmental safety management is analyzed. Students are required to complete all scheduled laboratory work. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

Specialization: Design of Buildings and Structures
obligatory
  • STGGB17037 6 credits

    Reinforced Concrete Structures 2

    Study subject aim

    Knowledge about design of reinforced concrete structures by applying calculation methods based on service ability limit states; types and design peculiarities of over ground bearing structures; structural solutions and design peculiarities of shallow and deep foundations.

    Study subject description

    Cracking and stiffness of reinforced concrete members. Reinforced concrete structures of multi-storey buildings. Reinforced concrete structures of single-storey buildings. Foundation structures.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises.

  • STMEB17032 6 credits

    Integrated Project (Steel Structures 2; Building Construction Technology and Organization)

    Study subject aim

    Getting the knowledge and skill design of the truss and beam-columns and their joints. Getting the knowledge and skill for the installation of metal structures technology card design peculiarities.

    Study subject description

    The course project is dedicated to the design of steel frame structures. During the preparation of the course project, the skills and abilities to assess the environmental, technological effects, and loads on buildings are acquired. The skills in preparing the components of construction projects – basic calculations of the load-bearing capacity of steel construction elements and their assemblies, as well as detailed construction drawings and specifications, to properly design them are consolidate. During the preparation of the technological part of the module, acquired abilities and skills to prepare of technological cards for construction and installation work, to choose of technology and construction methods and workplace safety rules.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STMEB17031 6 credits

    Steel Structures 2

    Study subject aim

    The ensurance of necessary knowledge and skills on the design of single-storey building steel structures, their members and connections according to the European and international standards is foreseen. Developing the abilities to apply that knowledge updating them on a permanent basis, taking into account the newly emerging structural design tools and techniques. The ensured knowledge and skills must become the basis for acquiring the competence for design of building and structural systems.

    Study subject description

    Module covers the second part of course for design of steel structures. This part introduces with structures of single storey buildings like roof trusses, portal frames and compact and built-up beam-columns. In the course the short review of collecting the loads and calculating of their combinations for single storey buildings is presented. The basic knowledge about the design and detailing of connections of building structures are ensured for students. The module covers also the questions of design of frames, roof trusses and travelling crane girders and their joints. Theoretical knowledge and design skills are consolidated during practical lectures and preparation of course project.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17038 3 credits

    Reinforced Concrete Structures 2 (Course Project)

    Study subject aim

    To provide knowledge and ability to design reinforced concrete elements: foundations, columns, slabs.

    Study subject description

    Design and construction of reinforced concrete elements: foundation, column, slab.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STVNB17311 3 credits

    Building Construction Technology and Organization

    Study subject aim

    To provide general knowledge about efficient building construction technology and construction management.

    Study subject description

    Effective construction organizing and management, legal regulation of construction, principles of technological documentation, arranging building design, principles of calendar and network scheduling, streamlined approach to construction management, specialization and consistency of construction works, drawing up project of construction organization, engineering site preparation, supplying construction with resources, construction mechanization and management. Efficent preparation of construction site and safety of workers on site solutions. Questions regarding general design principles, management of construction quality, organization of construction companies and scheduling their work are discussed in background of efficient solutions of construction organization.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STTMB17105 3 credits

    Numerical Analysis of Structures - BIM 2

    Study subject aim

    To give knowledge about finite element method. To research design of bar structures displacements and internal forces by finite element method. To give knowledge about solution of various mathematical, mechanical and engineering problems using special software.

    Study subject description

    Calculation and application of nodal displacements and internal forces of structures using the finite element method based on the principle of minimum total potential energy. Analysis and structures optimization of elastic displacements and internal forces using mathematical modeling packages. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGSB17062 3 credits

    Human's Safety and Environmental Protection

    Study subject aim

    To provide knowledge and develop skills to be able to analyze problematic situations and look for alternative solutions,
    assessing possible social and environmental consequences, to familiarize with the solution of safety problems.

    Study subject description

    The legal regulation of human safety is introduced. Natural, technogenic and work environment hazards are annalyzed.
    Mechanisms of impact on humans, ways and means of possible consequences reduction are discussed. Knowledge is provided about environmental pollution caused by human activity and consequences for global pollution. Occupational risk and environmental safety management is analyzed. Students are required to complete all scheduled laboratory work. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

Specialization: Design of Bridge Structures
obligatory
  • STGGB17358 6 credits

    Reinforced Concrete Transport Structures 1

    Study subject aim

    To introduce to the main types of reinforced concrete bridges, bridge structures, loads and actions on bridges, fundamentals of analysis, design and construction of reinforced concrete girder bridges.

    Study subject description

    Variety and functions of reinforced concrete transport structures. Historical review of construction of bridges. The most famous bridges in the world and Lithuania. Classification of bridges. Main elements, parameters and computational schemes of bridges. Clearance of bridges. Decking of bridges. Choice of construction site, type and computational scheme of bridge structure. Hydrology of bridges. Types of decks and piers. Basic rules for design of bridges. Limit state design. Loads and actions on bridges according to LST-EN. Load models and combinations for traffic bridges. Load models and combinations for footbridges. Load models and combinations for railway bridges. Load models for fatigue analysis. Load models according to SNiP and fundamentals of their application. Calculation of internal forces in slab of reinforced concrete bridge deck. Coefficient of lateral load distribution and methods for calculation.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises.

  • STMEB17111 6 credits

    Integrated project (Reinforced concrete transport structures 1; Steel Bridges 1)

    Study subject aim

    To develop the skills on the design of reinforced concrete and steel bridges, introduce the stages of design and graphical representation of the project.

    Students must attend at least 60% of the time scheduled practical lectures.

    Study subject description

    The course project is designed to give students a comprehensive understanding of the design and construction of reinforced concrete and steel transport structures. The module covers the composition of the structural systems of reinforced concrete and steel bridges, loads, actions and load combinations and the analysis of the internal forces of the structure. Students will learn how to select appropriate cross-sections, structural elements, connections, prepare detailed drawings and calculation schemes for different types of structures. This module will provide the necessary skills and knowledge for the design and construction of safe, reliable structures that meet the needs of modern transport infrastructure.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STMEB17110 6 credits

    Steel Bridges 1

    Study subject aim

    To provide basic knowledge about steel bridges, calculation of stresses of their structural elements, design of elements, construction of bridges.
    Students must attend at least 60% of the time scheduled practical lectures.

    Study subject description

    Steel bridges and their classification are introduced. Truss steel bridges, their composition depending on the deck type and its position are discussed. Necessary knowledge about the cross-sections of truss bridge elements, their structural requirements, and students’ understanding of the choice and checking of cross sections of truss bridge elements are provided. The types of connections of elements of truss bridges, their construction and calculation are discussed in detail, taking into account the types of connections. Framed steel bridges, their construction and calculation are discussed. The stability of frame bridge elements is examined by applying European normative documents (EC 3) and standard FEM software packages. It shows how to choice steel for bridge structures. The peculiarities Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17040 3 credits

    Reinforced Concrete Structures 2

    Study subject aim

    Knowledge about design of reinforced concrete structures by applying calculation methods based on serviceability limit states; types and design peculiarities of over ground bearing structures; structural solutions and design peculiarities of shallow and deep foundations.

    Study subject description

    Cracking and stiffness of reinforced concrete members. Reinforced concrete structures of multi-storey buildings. Reinforced concrete structures of single-storey buildings. Foundation structures.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises.

  • STMEB17033 3 credits

    Steel Structures 2

    Study subject aim

    The ensurance of necessary knowledge and skills on the design of single-storey building steel structures, their members and connections according to the European and international standards is foreseen. Developing the abilities to apply that knowledge updating them on a permanent basis, taking into account the newly emerging structural design tools and techniques. The ensured knowledge and skills must become the basis for acquiring the competence for design of building and structural systems.

    Study subject description

    Module covers the second part of course for design of steel structures. This part introduces with structures of single storey buildings like roof trusses, portal frames and compact and built-up beam-columns. In the course the short review of collecting the loads and calculating of their combinations for single storey buildings is presented. The basic knowledge about the design and detailing of connections of building structures are ensured for students. The module covers also the questions of design of frames, roof trusses and travelling crane girders and their joints. Theoretical knowledge and design skills are consolidated during practical lectures and preparation of course project.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STTMB17105 3 credits

    Numerical Analysis of Structures - BIM 2

    Study subject aim

    To give knowledge about finite element method. To research design of bar structures displacements and internal forces by finite element method. To give knowledge about solution of various mathematical, mechanical and engineering problems using special software.

    Study subject description

    Calculation and application of nodal displacements and internal forces of structures using the finite element method based on the principle of minimum total potential energy. Analysis and structures optimization of elastic displacements and internal forces using mathematical modeling packages. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGSB17062 3 credits

    Human's Safety and Environmental Protection

    Study subject aim

    To provide knowledge and develop skills to be able to analyze problematic situations and look for alternative solutions,
    assessing possible social and environmental consequences, to familiarize with the solution of safety problems.

    Study subject description

    The legal regulation of human safety is introduced. Natural, technogenic and work environment hazards are annalyzed.
    Mechanisms of impact on humans, ways and means of possible consequences reduction are discussed. Knowledge is provided about environmental pollution caused by human activity and consequences for global pollution. Occupational risk and environmental safety management is analyzed. Students are required to complete all scheduled laboratory work. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

7 Semester

Specialization: Geotechnics
obligatory
  • STVNB17313 12 credits

    Professional Practice

    Study subject aim

    The aim of Internship is to strengthen students theoretical knowledge acquired studying special subjects, to help students to gain practical skills working in the sphere of construction engineering.

    Study subject description

    Internship is an integral part of the education process. Internship is provided in the territory of the Republic of Lithuania. Budgetary organizations, all legal types of private companies operating in areas of construction planning and management, construction design, construction, supervision and maintenance are recommended for practical trainings. Doing practical work a student performs the functions of worker (or team-leader if he/she has necessary experience). Individual tasks including determination and performance of internship base and key tasks, preparation and presentation of final report are formed for each student.

  • STGGB24702 6 credits

    Design of Building Foundations 1 (with Course Project)

    Study subject aim

    An understanding and skills to design shallow foundations, anchors and retaining wall.

    Study subject description

    The base knowledge to calculate the shallow foundations. Select and apply mathematical methods, software and hardware for shallow foundation design and installation.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STGGB24701 3 credits

    Design of Retaining Walls

    Study subject aim

    Give basic knowledge of the calculation and designing of slopes and underground structures.

    Study subject description

    The base knowledge to calculate the stability of the slopes and retaining structures. Must know calculating methods for designing the slopes and retaining structures.
    Students must attend at least 60 percent exercises as scheduled.

  • STGGB17049 3 credits

    Design and Numerical Modeling of Reinforced Concrete Structures - BIM 3

    Study subject aim

    Presentation of information on structural systems of buildings, loads and actions acting on buildings, formation of design diagrams and detailing of reinforced concrete and steel structures.

    Study subject description

    Structural systems for buildings. Loads and actions acting on buildings. Design situations and combinations for analysis of load bearing structures. Formation of diagrams for analysis of single story and multistory buildings. Analytical and computer – based principles of calculation of forces. Principles of detailing for reinforced concrete and steel structures and their connections.
    Students must attend at least 70 percent exercises as scheduled.

  • STGGB17194 3 credits

    Design of Geotechnical Structures

    Study subject aim

    An understanding and ability of designing the geotechnical structures.

    Study subject description

    General rules of designing geotechnical structures. The base knowledge to calculate the reinforced and steel geotechnical structures.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STTMB17107 3 credits

    Dynamics and Stability of Buildings

    Study subject aim

    Aim of the course is to familiarize students with dynamic structural loads and instability phenomenon. To teach calculation methods of dynamic deformations and critical buckling loads.

    Study subject description

    First part of the course is dedicated to the introduction into dynamic behaviour of building structures. Students learn to determine natural and excited vibration parameters. Second part of the course aims to analyse structural instability and introduce methods for calculation of critical buckling forces. The course is taught in the flipped classroom method – study material is supplemented for students to learn individually before class. During lectures and seminars students individually and in working groups solve problems by programing algorithms and using FEM software. Proactive students have an opportunity to make a creative study project and practically investigate structural vibrations. Students must attend at least 70% of the time scheduled practical exercises.

Specialization: Design of Buildings and Structures
obligatory
  • STVNB17313 12 credits

    Professional Practice

    Study subject aim

    The aim of Internship is to strengthen students theoretical knowledge acquired studying special subjects, to help students to gain practical skills working in the sphere of construction engineering.

    Study subject description

    Internship is an integral part of the education process. Internship is provided in the territory of the Republic of Lithuania. Budgetary organizations, all legal types of private companies operating in areas of construction planning and management, construction design, construction, supervision and maintenance are recommended for practical trainings. Doing practical work a student performs the functions of worker (or team-leader if he/she has necessary experience). Individual tasks including determination and performance of internship base and key tasks, preparation and presentation of final report are formed for each student.

  • STGGB17189 3 credits

    Basics of Soil Mechanics

    Study subject aim

    An understanding of essentials of soil mechanics.

    Study subject description

    To provide knowledge and cognitions about ground properties, stresses in soil mass, settlement, soil stability, lateral earth pressure.
    Students must attend at least 70 percent of lectures as scheduled.
    Students are required to complete all scheduled laboratory work.

  • STMEB17037 3 credits

    Timber Structures

    Study subject aim

    To provide knowledge to students on the demands and understand principles of wood as a building material, buildings from the timber construction, the establishment of calculating schemes, the design and construction of timber elements and connections.

    Study subject description

    Capacity to of knowledge about the wood as a building material, timber in construction, solid sawn timber, wood-based panels, timber strength grading and strength classes, timber durability, fire resistance, protection treatment, limit state design, timber joints, types of connections, construction of roof of house, log, timber frame and prefabricated houses, frames, arches, trusses, domes, their types and calculations.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17048 3 credits

    Masonry and Composite Structures

    Study subject aim

    To provide knowledge of masonry construction and the calculation of the safety limit state eligibility requirements of the construction of masonry structures, laminated stone computing and design features.

    Study subject description

    While studying the acquired knowledge and cross-laminated solid masonry bearing partitions and solutions, the calculation method and limit state design, lintels and arches and beams posieninių design.
    At least 70 percent of the exercises must be attended during the semester.

  • STTMB17107 3 credits

    Dynamics and Stability of Buildings

    Study subject aim

    Aim of the course is to familiarize students with dynamic structural loads and instability phenomenon. To teach calculation methods of dynamic deformations and critical buckling loads.

    Study subject description

    First part of the course is dedicated to the introduction into dynamic behaviour of building structures. Students learn to determine natural and excited vibration parameters. Second part of the course aims to analyse structural instability and introduce methods for calculation of critical buckling forces. The course is taught in the flipped classroom method – study material is supplemented for students to learn individually before class. During lectures and seminars students individually and in working groups solve problems by programing algorithms and using FEM software. Proactive students have an opportunity to make a creative study project and practically investigate structural vibrations. Students must attend at least 70% of the time scheduled practical exercises.

Specialization: Design of Bridge Structures
obligatory
  • STVNB17313 12 credits

    Professional Practice

    Study subject aim

    The aim of Internship is to strengthen students theoretical knowledge acquired studying special subjects, to help students to gain practical skills working in the sphere of construction engineering.

    Study subject description

    Internship is an integral part of the education process. Internship is provided in the territory of the Republic of Lithuania. Budgetary organizations, all legal types of private companies operating in areas of construction planning and management, construction design, construction, supervision and maintenance are recommended for practical trainings. Doing practical work a student performs the functions of worker (or team-leader if he/she has necessary experience). Individual tasks including determination and performance of internship base and key tasks, preparation and presentation of final report are formed for each student.

  • STGGB17360 3 credits

    Reinforced Concrete Transport Structures 2

    Study subject aim

    To introduce to the main types of complex reinforced concrete bridges, retaining walls, tunnels and culverts and their structures, loads and actions on bridges, fundamentals of analysis, design and construction.

    Study subject description

    Prestressed concrete bridge structures and fields of application. Prestressed concrete girder bridges. Fundamentals of calculation of load carrying capacity, cracking and deformations of prestressed concrete members. Detailing of prestressed concrete members. Frame bridge structures and elements. Fundamentals of analysis and design of frame bridge elements. Basics of design of joints of frame bridges. Detailing of frame bridge elements. Arch bridge structures and elements. Fundamentals of analysis and design of arch bridge elements. Detailing of arch bridge elements. Suspension and cable-stayed bridge structures and elements. Fundamentals of analysis and design of suspension and cable-stayed bridge elements. Detailing of suspension and cable-stayed bridge elements. Types and structures of foundations of bridges. Peculiarities of design of bridge foundations. Bearings and joints of bridges and their functions. Design of bearings and joints.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STGGB17189 3 credits

    Basics of Soil Mechanics

    Study subject aim

    An understanding of essentials of soil mechanics.

    Study subject description

    To provide knowledge and cognitions about ground properties, stresses in soil mass, settlement, soil stability, lateral earth pressure.
    Students must attend at least 70 percent of lectures as scheduled.
    Students are required to complete all scheduled laboratory work.

  • STMEB17113 3 credits

    Steel Bridges 2

    Study subject aim

    Provide basic knowledge on analysis, design, construction, maintenance and rehabilitation of framed, arched, cable-stayed, suspension and cable-struted steel bridges.

    Study subject description

    Types of steel bridges and their classification. Arched, cable-stayed, suspension and cable-struted steel bridges.
    Loads on their steel bridges. Materials of cable-stayed and suspension steel bridges. Foodbridges. New structural shapes. Structural analysis and design of steel bridges. Preliminary design of steel bridges. Design connections for arched, cable-stayed, suspension and cable-struted bridges. Non-linear behaviour of such bridges and determining the strain state in their members. Adjustment of moments in the elements of bridge structures. Construction and maintenance of steel bridges.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STTMB17107 3 credits

    Dynamics and Stability of Buildings

    Study subject aim

    Aim of the course is to familiarize students with dynamic structural loads and instability phenomenon. To teach calculation methods of dynamic deformations and critical buckling loads.

    Study subject description

    First part of the course is dedicated to the introduction into dynamic behaviour of building structures. Students learn to determine natural and excited vibration parameters. Second part of the course aims to analyse structural instability and introduce methods for calculation of critical buckling forces. The course is taught in the flipped classroom method – study material is supplemented for students to learn individually before class. During lectures and seminars students individually and in working groups solve problems by programing algorithms and using FEM software. Proactive students have an opportunity to make a creative study project and practically investigate structural vibrations. Students must attend at least 70% of the time scheduled practical exercises.

Specialization: Design of Buildings and Structures
one of the following
  • STGGB17049 3 credits

    Design and Numerical Modeling of Reinforced Concrete Structures - BIM 3

    Study subject aim

    Presentation of information on structural systems of buildings, loads and actions acting on buildings, formation of design diagrams and detailing of reinforced concrete and steel structures.

    Study subject description

    Structural systems for buildings. Loads and actions acting on buildings. Design situations and combinations for analysis of load bearing structures. Formation of diagrams for analysis of single story and multistory buildings. Analytical and computer – based principles of calculation of forces. Principles of detailing for reinforced concrete and steel structures and their connections.
    Students must attend at least 70 percent exercises as scheduled.

  • STMEB17038 3 credits

    Computer-Aided Modelling of Steel Structures - BIM3

    Study subject aim

    Develop knowledge and skills for the efficient design of steel structures with BIM technologies.

    Study subject description

    Module intended for efficiency of design and calculations of steel structures with BIM technologies. Theoretical knowledge establishes practical skills exercises.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

Specialization: Design of Buildings and Structures
one of the following
  • STMEB24721 3 credits

    Aluminium Structures

    Study subject aim

    Indocrinating students with the fundamentals of aluminium structures, with their application, detailing and proportioning.

    Study subject description

    During the study, knowledge is gained about the application of aluminum structures, as well as the possibilities, mechanical properties of aluminum alloys – their similarities and differences with steel mechanical properties and the principles and methods of calculating steel structures bearing capacity. In practice works acquires the ability to design of aluminum elements load-bearing capacity made of extrusion cross-sections and build-up welded cross-sections and calculate of load bearing capacity of welded, bolted joints and connections made of aluminum.
    Students must attend at least 60% of the time scheduled practical lectures.

  • STGGB24703 3 credits

    Multi-storey Buildings

    Study subject aim

    To provide theoretical knowledge and practical skills of multi-storey buildings structures analysis constructing and design.

    Study subject description

    Calculation and analysis of high-rise buildings and tower structure using numerical and analytical methods, stress strain state analysis, design features of structural elements.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STGGB24704 3 credits

    Transport Structures

    Study subject aim

    To introduce to the main types of bridges and tunnels and their structures, loads and actions on transport structures, fundamentals of analysis, design and construction

    Study subject description

    Student will be able to recognize, formulate and comprehensively solve problems related to the design, construction and investigation of transport structures, to apply modern engineering measures in order to solve those problems.
    Students must attend at least 70% of the time scheduled practical lectures.

Specialization: Design of Bridge Structures
one of the following
  • STGGB17359 3 credits

    Reinforced Concrete Transport Structures 2 (Course Project)

    Study subject aim

    To introduce to the main types of complex reinforced concrete bridges, retaining walls, tunnels and culverts and their structures, loads and actions on bridges, fundamentals of analysis, design and construction.

    Study subject description

    Prestressed concrete bridge structures and fields of application. Prestressed concrete girder bridges. Fundamentals of calculation of load carrying capacity, cracking and deformations of prestressed concrete members. Detailing of prestressed concrete members. Frame bridge structures and elements. Fundamentals of analysis and design of frame bridge elements. Basics of design of joints of frame bridges. Detailing of frame bridge elements. Arch bridge structures and elements. Fundamentals of analysis and design of arch bridge elements. Detailing of arch bridge elements. Suspension and cable-stayed bridge structures and elements. Fundamentals of analysis and design of suspension and cable-stayed bridge elements. Detailing of suspension and cable-stayed bridge elements. Types and structures of foundations of bridges. Peculiarities of design of bridge foundations. Bearings and joints of bridges and their functions. Design of bearings and joints.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STMEB17112 3 credits

    Steel Bridges 2 (course work)

    Study subject aim

    To develop the skills on the design of steel bridges (arched, , cable-stayed, suspension etc.), introduce the stages of design and graphical representation of the project.

    Study subject description

    The course project is designed to give students a comprehensive understanding of the design and construction of steel bridges. The module covers the composition of the structural systems of steel bridges (arched, cable-stayed, suspension, etc.), determination of loads and effects depending on the purpose of the bridge, and compilation of load combinations. Students will learn to select cross-sections of supporting structural elements, construct connections, and prepare detailed drawings. This module will provide the necessary skills and knowledge for the design and construction of structures that meet the needs of modern transport infrastructure.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

Specialization: Design of Bridge Structures
one of the following
  • STMEB24721 3 credits

    Aluminium Structures

    Study subject aim

    Indocrinating students with the fundamentals of aluminium structures, with their application, detailing and proportioning.

    Study subject description

    During the study, knowledge is gained about the application of aluminum structures, as well as the possibilities, mechanical properties of aluminum alloys – their similarities and differences with steel mechanical properties and the principles and methods of calculating steel structures bearing capacity. In practice works acquires the ability to design of aluminum elements load-bearing capacity made of extrusion cross-sections and build-up welded cross-sections and calculate of load bearing capacity of welded, bolted joints and connections made of aluminum.
    Students must attend at least 60% of the time scheduled practical lectures.

  • STGGB24705 3 credits

    Advanced Methods for Inspection, Repair and Reconstruction of Structures

    Study subject aim

    To introduce the problems and peculiarities of inspection, repair and reconstruction of structures.

    Study subject description

    Necessity for inspection, repair and reconstruction of structures. Advances in maintenance and control of structures. State of existing structures, problems and methods for solution. Durability of structures. Failures of structures and analysis of their causes. Maintenance and repair strategy of structures. Peculiarities of inspection and state assessment of structures. Dynamic and static testing of structures. Methods for defect identification. Control of structures. Intelligent systems for control of structures. Methods for repair and reconstruction of structures. Innovative systems for repair and strengthening of structures. Issues for increasing of durability and reliability pf structures.
    Students must attend at least 70% of the time scheduled practical lectures.

8 Semester

Specialization: Geotechnics
obligatory
  • STGGB24803 15 credits

    Bachelor Graduation Thesis

    Study subject aim

    Preparing drawings and general conclusions.

    Study subject description

    Drawings in accordance with the performed calculations, technological and economic parts.

  • STGGB24801 6 credits

    Design of Structural Foundations 2 (with Course Project)

    Study subject aim

    An understanding and ability to design deep and pile foundations.

    Study subject description

    Must know the analytical, empirical methods for calculating and designing deep and pile foundations.
    Students must attend at least 70% of the time scheduled practical lectures.

  • KILSB17034 3 credits

    Specific Purpose Language Culture

    Study subject aim

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree.

    Study subject description

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree. Participation in at least 60% of the scheduled exercises is mandatory.

  • VVTEB16804 3 credits

    Law

    Study subject aim

    To indoctrinate students with the fundamentals of law, with system of law and order, the basic legal acts.

    Study subject description

    Description of law fundamentals: source of the law, legal relations, breach of the law and legal responsibility, efficiency of the law, legal culture, structure of legal regulation, lawful behaviour, validity of the law, gaps of the law, its elimination.

  • VVVKB17181 3 credits

    Management

    Study subject aim

    To form basis of methodological knowledge of management and educate capabilities of professional logical thinking.

    Study subject description

    During management course contains management substance, basic concepts and their interpretation. The course conveys evolution of management, identified management object and subjects, organisation elements and surroundings, administrative solutions cycle and their phases, economic, psychological, administrative management methods. There are analysed management functions: prognostication, planning, organization, accounting, control and analysis, as well as projecting of management structures and adaptation, leadership, horizontal and vertical communication, employee evaluation, remuneration and motivation, organisation establishment and control. Students must attend at least 60% of the exercises according to the timetable.

Specialization: Design of Buildings and Structures
obligatory
  • STGGB17195 6 credits

    Foundation Engineering (with Course Project)

    Study subject aim

    General knowledge about design of various types of foundations: design requirements, rational types of foundations, their basement and dimensions calculations.

    Study subject description

    Foundation design. Skills to choose relevant foundation types, mathematical models and calculation methods for considered geotechnical situations.
    Students must attend at least 60% of the time scheduled practical lectures.

  • KILSB17034 3 credits

    Specific Purpose Language Culture

    Study subject aim

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree.

    Study subject description

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree. Participation in at least 60% of the scheduled exercises is mandatory.

  • VVTEB16804 3 credits

    Law

    Study subject aim

    To indoctrinate students with the fundamentals of law, with system of law and order, the basic legal acts.

    Study subject description

    Description of law fundamentals: source of the law, legal relations, breach of the law and legal responsibility, efficiency of the law, legal culture, structure of legal regulation, lawful behaviour, validity of the law, gaps of the law, its elimination.

  • VVVKB17181 3 credits

    Management

    Study subject aim

    To form basis of methodological knowledge of management and educate capabilities of professional logical thinking.

    Study subject description

    During management course contains management substance, basic concepts and their interpretation. The course conveys evolution of management, identified management object and subjects, organisation elements and surroundings, administrative solutions cycle and their phases, economic, psychological, administrative management methods. There are analysed management functions: prognostication, planning, organization, accounting, control and analysis, as well as projecting of management structures and adaptation, leadership, horizontal and vertical communication, employee evaluation, remuneration and motivation, organisation establishment and control. Students must attend at least 60% of the exercises according to the timetable.

Specialization: Design of Bridge Structures
obligatory
  • STGGB17195 6 credits

    Foundation Engineering (with Course Project)

    Study subject aim

    General knowledge about design of various types of foundations: design requirements, rational types of foundations, their basement and dimensions calculations.

    Study subject description

    Foundation design. Skills to choose relevant foundation types, mathematical models and calculation methods for considered geotechnical situations.
    Students must attend at least 60% of the time scheduled practical lectures.

  • KILSB17034 3 credits

    Specific Purpose Language Culture

    Study subject aim

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree.

    Study subject description

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree. Participation in at least 60% of the scheduled exercises is mandatory.

  • VVTEB16804 3 credits

    Law

    Study subject aim

    To indoctrinate students with the fundamentals of law, with system of law and order, the basic legal acts.

    Study subject description

    Description of law fundamentals: source of the law, legal relations, breach of the law and legal responsibility, efficiency of the law, legal culture, structure of legal regulation, lawful behaviour, validity of the law, gaps of the law, its elimination.

  • VVVKB17181 3 credits

    Management

    Study subject aim

    To form basis of methodological knowledge of management and educate capabilities of professional logical thinking.

    Study subject description

    During management course contains management substance, basic concepts and their interpretation. The course conveys evolution of management, identified management object and subjects, organisation elements and surroundings, administrative solutions cycle and their phases, economic, psychological, administrative management methods. There are analysed management functions: prognostication, planning, organization, accounting, control and analysis, as well as projecting of management structures and adaptation, leadership, horizontal and vertical communication, employee evaluation, remuneration and motivation, organisation establishment and control. Students must attend at least 60% of the exercises according to the timetable.

Specialization: Design of Buildings and Structures
one of the following
  • STMEB24801 15 credits

    Bachelor Graduation Thesis

    Study subject aim

    Transition of knowledge’s and skill’s in the field of design of elements and joints of structures.

    Study subject description

    Design of building bases and foundations. Fire calculation of constructions. Technological or economic part, architectural part of the thesis. Drawings of the architectural, structural and technological part. Preparation of the explanatory part of the final work.

  • STGGB24802 15 credits

    Bachelor Graduation Thesis

    Study subject aim

    Formation of diagram for analysis of a building. Arrangement of loads. Calculation of forces for load bearing structures of building. Combination of forces. Analysis of forces in load bearing structures of buildings. Calculation of reinforcement for load bearing members of building.

    Study subject description

    Formation of diagram for analysis of a building. Arrangement of loads. Calculation of forces for load bearing structures of building. Combination of forces.
    Students must attend at least 70% of the time scheduled practical lectures.

Specialization: Design of Bridge Structures
one of the following
  • STMEB24802 15 credits

    Bachelor Graduation Thesis

    Study subject aim

    Transition of knowledge’s and skill’s in the field of design of elements and joints of structures.

    Study subject description

    Design of bridge bases and foundations. Technological or economic part, architectural part of the thesis. Drawings of the architectural, structural and technological part. Preparation of the explanatory part of the final work.

  • STGGB24804 15 credits

    Bachelor Graduation Thesis

    Study subject aim

    To analyse investigation results, to formulate conclusion of final work and to prepare graphical part of the work.

    Study subject description

    Detailing of the technical project of final work. Analysing of the investigation results and formulation of the conclusions. Preparation of the description part. Preparation of the graphical part. Preparation of the annexes.

Statistics

Metric Value
Enrolled students 99
Enrolled to FT 83
Min FT grade 7.09

Further study options

Aerospace Engineering

Environmental Engineering and Management

Management of Artificial Intelligence Solutions

Geographic Information Systems

Geotechnics

Communication of Innovation and Technology

Innovation Solution in Geomatic

Engineering Economics and Management

Engineering Economics and Management

Road Engineering and Management

Cyber Security Management (MBA)

Materials and Welding Engineering

Real Estate Management

Building Energy Engineering

Digital Graphics and Animation

Construction Products Engineering

Construction Technologies and Management

Building Information Modelling

Structural Engineering

Master of Business Administration

  • Department
    Faculty of Civil Engineering
  • Program code
    6121EX039
  • Field of study
    Civil Engineering
  • Qualification
    Bachelor of Engineering Sciences
  • Duration
    6

Fun fact

The colonization of new planets will only be possible with the expertise of construction engineers. Did you know the most widely used artificial material in construction—concrete—was first created around 2000 BC?

Every new structure changes the face of the world.

About

Programme Objective

This programme prepares highly knowledgeable, innovative, and motivated civil engineers. Students learn to design buildings and structures using the latest design tools and calculation methods, to modernize construction technologies, and to effectively organize and manage design and construction processes.

Main Study Modules

  • Reinforced Concrete Structures

  • Steel Structures

  • Basics of Structural Mechanics and Elasticity Theory

  • Reinforced Concrete Transport Structures

  • Foundation Design

“An excellent study programme where I learned to work independently, analyze engineering problems, and make confident decisions. I am proud to have completed this bachelor’s degree—finding a job is easy thanks to the wide range of opportunities in the construction sector.”
Graduate
  • What will I be able to do?

    • Design buildings and structures using modern design principles, calculation tools, and construction technologies
    • Perform and assess geotechnical investigations
    • Select effective technical solutions and problem-solving strategies
    • Organize and manage construction processes, optimize the use of materials and resources, reduce labor costs, and carry out economic evaluations of projects
    • Evaluate the suitability of materials and structures, select the correct calculation methods, and prepare or lead building and structural design projects using advanced computer-aided design software
    • Manage building design processes by applying Building Information Modeling (BIM) principles
    • Assess building and structural quality, ensure fire, civil, and occupational safety, and apply innovative construction materials and solutions
    • Solve geotechnical design and construction challenges, apply appropriate technical and technological solutions, and supervise design and construction processes.

  • What are my career opportunities?

    Graduates are well-prepared for careers in building and structural design, construction, geotechnical engineering, project supervision, and technical expertise.
    Possible career directions include:
    • Working in companies involved in building and structural design, construction, and supervision
    • Participating in geotechnical design and the execution of geotechnical works
    • Providing professional expertise and technical assessments for construction projects
    • Establishing and growing your own business in the civil engineering sector.

Study subjects

1 - 2 Semesters
  • 1 - 2 Semesters
  • 3 - 4 Semesters
  • 5 - 6 Semesters
  • 7 - 8 Semesters
  • 9 - 10 Semesters
  • 11 - 12 Semesters
1 - 2 Semesters
3 - 4 Semesters
5 - 6 Semesters
7 - 8 Semesters
9 - 10 Semesters
11 - 12 Semesters

1 Semester

obligatory
  • FMMMB16101 6 credits

    Algebra and Differential Calculus

    Study subject aim

    To introduce basics of linear algebra, analytical geometry and differential calculus

    Study subject description

    The course covers the elements of linear algebra (matrices, determinants, systems of linear equations), analytical geometry (vectors, straight lines, planes) and differential calculus of functions of one variable (limits, derivatives, investigation of functions). The questions of their practical application are touched upon.
    Students must attend at least 60% of the time scheduled practical works (full-time studies and part-time, distance learning studies) and 50% of the lectures (only full-time studies).

  • FMFIB16124 6 credits

    Physics

    Study subject aim

    To give knowledge about basic interactions in nature, gravitational, electrical and magnetic fields, nature of mechanical and electrical phenomena and processes, states of solid and gaseous material, to educate skills of scientific thinking, to teach how to estimate theoretically and experimentally data and reliability, to prepare for the engineering studies.

    Study subject description

    Physics, the subject of the study, is a combination of theory and practice, designed to provide students with understanding of fundamental mechanics, molecular physics and thermodynamics, electrostatics, electrodynamics, electromagnetism, optics and atomic physics, all needed for civil engineering studies. The knowledge is provided about mechanical oscillations and vibrations and their manifestation in engineering devices and construction structures, thermal phenomena, electrical and magnetic parameters, electrical measuring devices. The ability to interpret and efficiently explain the results of experimental research obtained in laboratories is developed.
    Students are required to attend more than 50% of scheduled lectures and at least 60% of scheduled practical work, as well as to complete all laboratory work.

  • FMCHB16101 3 credits

    Chemistry

    Study subject aim

    To enable students to seek basic chemical knowledge in shaping their concept of their application in practical and professional activities.

    Study subject description

    It is a set of theoretical knowledge and practical skills that help to understand thermodynamic and kinetic methods of predicting systems, the formation of solutions and their properties, oxidation-reduction processes occurring in electrochemical devices, electrolysis and corrosion of metals, which are very important in the field of environmental engineering. It is important to recognize in which field of civil engineering what chemical processes or phenomena take place and how to use them correctly and usefully for effective work in this field.
    Students must attend at least 80 % of the time scheduled laboratory work and at least 50 % of theoretical lectures.

  • KIFSB17108 3 credits

    Philosophy

    Study subject aim

    The course is intended to introduce students to the basic problems of philosophy and to provide with skills for critical thinking.

    Study subject description

    The course examines the origin of philosophy and the role of philosophy in the development of European cultural history. Course presents the topics of being, the nature of things and ideas, knowledge, the relationship between science and philosophy, the human place in cosmos, in a society and in the state. The main focus is placed upon antique philosophy and its subsequent interpretations.
    Students must attend at least 60 percent of the seminars and at least half of the lectures at the scheduled times

  • STGGB17026 3 credits

    Introduction to Specialty

    Study subject aim

    To introduce students to the studies in civil engineering, to provide knowledge about the peculiarities of the professional activity of civil engineering specialists, the development of the science of civil engineering and the principles of modern construction of buildings and construction technologies.

    Study subject description

    Study at the University, study program and its specialization. General knowledge of buildings, their classification and design solutions, building structures, materials used in construction, principles and methods of building design. Introduction to the modern building technologies. Meetings with representatives of different construction processes, visiting of modern construction objects and factory of building structures.
    This course cover micro-course: Green and friendly house building materials based on waste.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

2 Semester

obligatory
  • FMISB16106 6 credits

    Information Technologies

    Study subject aim

    Provide a basic understanding about information processing patterns and the tools.
    Students must attend at least 80% of the time scheduled laboratory work. Students must complete all the prescribed laboratory work

    Study subject description

    The module on a deeper examination of information technology. Course structure includes the following science topics:
    Basic science concepts and definitions. Informatics structure. Information, data and knowledge. Information properties. Information Systems. Information systems characteristics. Types of information systems, structure and classification. Mathematical computer basics. Boolean algebra. Boolean functions. Logic Circuits. Logical operation of computer basics. Machine types and their characteristics. Classical computer architecture. Software. Operating systems, their purpose and structure. Operating systems. Networks. Data transmission technologies.
    Students must attend at least 60% of the time scheduled practical lectures.Mandatory minimum attendance of module lectures – 50%.

  • FMMMB16201 6 credits

    Integral Calculus

    Study subject aim

    The aim of this course is to provide the knowledge from integral calculus, to achieve the ability to analyze situation, to choose the appropriate problem solving method, to present and clarify the obtained results, to develop the ability use the knowledge and practical abilities in the study process.

    Study subject description

    Integral calculus of functions of one variable: anti-derivatives, indefinite and definite integrals, the basic definitions, methods of integration, the properties of indefinite and definite integrals, Newton-Leibnitz formula, applications of definite integrals, multivariable functions, double and line integrals, ordinary differential equations and their solutions.

    Students must attend at least 60% of the time scheduled practical works (full-time studies and part-time, distance learning studies) and 50% of the lectures (only full-time studies).

  • ELEIB16206 3 credits

    Smart Electrical and Electronics Systems of Buildings

    Study subject aim

    Provide electrical engineering knowledge, develop the ability to creatively analyse and solve electrical issues.

    Study subject description

    The module is designed to get acquainted with the basic laws and devices of electrical engineering and electronics. BIM capabilities in electrical engineering.
    at least half of the lectures at the scheduled times

    Students must complete at least 80% of the laboratory work in the time provided in the schedule.

one of the following
  • KIPIB17020 3 credits

    Creative Processes in Engineering

    Study subject aim

    To introduce students with the creative processes manifesting in engineering. Help them to gain practical and analytical skills in this area.

    Study subject description

    During the course, the students will be introduced to the engineering and its evolution, as well as the creative process, manifesting in engineering. It will be analyzed in detail the specific branches of engineering, considering manifestations of creativity in particular engineering objects and creative processes manifested in them.
    Students are required to attend at least 50 % of the theoretical lectures.

  • STGGB23104 3 credits

    History of Building Art

    Study subject aim

    Introduce students into the evolution of architecture and construction, highlighting each period’s methods of construction.

    Study subject description

    Universal architecture and construction evolution from the oldest till present times, with focus on each period’s methods of
    construction.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 80% of the exercises.

  • KIKOB17047 3 credits

    Public Communication

    Study subject aim

    The aim of the course is to introduce the theoretical and practical aspects, issues and applications of public communication.

    Study subject description

    Public Communication course aims to introduce personal branding, corporate communication, communication with clients and internal communication, the students who have chosen studies of engineering sciences, computer sciences, technology sciences, mathematics sciences. Students learn how to present themselves and their ideas, better speak in public, to make good and convincing points, to better use the internet and social media for their professional goals, also to understand cross-cultural communication. The importance of media channels, messages and communication to target audiences are also introduced in the course. Through practical tasks for personal branding, students will learn how to adopt public ethics, protocol standards. In this course an approach of learning by doing is combined with theoretical analysis and students’ self-reflection. The practical part of the course consists of active participation in discussions during different exercises, case studies as well as preparation and presentation of public speeches and presentations.
    Participation in at least 60% of the scheduled exercises is mandatory. Lecture attendance is at least 50%

3 Semester

obligatory
  • FMIGB24301 6 credits

    General Engineering and Digital Graphics

    Study subject aim

    To present the general engineering and computer graphics fundamentals necessary in civil engineering design. To acquaintance with basic methods of general descriptive geometry, principles of orthographic projections, design methods, to introduce with modern computer aided design systems. Projection drawing. Views, arrangement of views in drawings. Simple and complex sections.

    Study subject description

    The basic practice of engineering graphic in computer aided design systems. Software review, possibilities. Preparation of constructions, mechanicals and other drawing types. Percularyties of drawing arrangement. Drawings standards. Modeling of 2D drawings, objects projections in one plane. General methods of the composition of volumetric models. Basis of 3D modeling. Represenatation of 3D objects, arrangement of prejections. Surfaces, peculiarities of modeling of surfaces. Projection drawing. Views, arrangement of views in drawings. Simple and complex sections.
    Students are required to attend at least 80% of the practical and laboratory classes at the scheduled time during the semester. Mandatory minimum attendance of module lectures – 50%.

  • STGGB17268 6 credits

    Applied Physics

    Study subject aim

    To provide basic building physics knowledge about building climatology, thermal physics, building and architectural acoustics, natural and artificial lighting.

    Study subject description

    The building physics course consists of three parts: thermodynamics, building acoustics and lighting technology. The thermodynamics part deals with ensuring the building’s energy efficiency. In the part of building acoustics, the issues of realizing the acoustic comfort of the building are discussed. In the light technique part, the basics of natural and artificial indoor lighting are introduced.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 80% of the exercises and complete all scheduled laboratory work.

  • FMMMB16301 6 credits

    Probability Theory and Mathematical Statistics

    Study subject aim

    To introduce basics of probability theory and mathematical statistics, to train a student to use obtained knowledge for solving of real world problems.

    Study subject description

    The basic probability theory concepts and theorems. The distribution functions of random variables and numerical characteristics. The problems of mathematical statistics. Empirical characteristics. The point and interval estimates of unknown parameters. Statistical hypothesis testing, elements of correlation theory, regression.

    Students must attend at least 60% of the time scheduled practical works, 80% of the time scheduled laboratory works (full-time studies and part-time, distance learning studies) and 50% of the lectures (only full-time studies).

one of the following
  • KIUSB17101 3 credits

    English Language

    Study subject aim

    To help students develop linguistic and communicative skills, acquire knowledge according to CEFR B2-C1 level in order to communicate spontaneously both in written and spoken forms on daily, cultural and professional topics.

    Study subject description

    The course covers an important aspect of academic language study relevant to all subject areas. The aim of the course is to reach a high (B2-C1) level of English to study in an academic institution. The course is aimed at the first-cycle students with B1-B2 level of English. The integrated skills course will develop students’ reading, writing, listening and speaking skills in an academic context. It will enable students to prepare assignments, write a research paper in English. Participation in at least 60% of the scheduled exercises is mandatory.

  • KIUSB17105 3 credits

    French Language

    Study subject aim

    To help students develop linguistic and communicative skills, acquire knowledge according to CEFR B2-C1 level in order to communicate spontaneously both in written and spoken forms on daily, cultural and professional topics.

    Study subject description

    The course covers an important aspect of academic language study relevant to all subject areas. The aim of the course is to reach a high (B2-C1) level of French to study in an academic institution. The course is aimed at the first-cycle students with B1-B2 level of French.The integrated skills course will develop students’ reading, writing, listening and speaking skills in an academic context. It will enable students to prepare assignments, write a research paper in French. Participation in at least 60% of the scheduled exercises is mandatory.

  • KIUSB17103 3 credits

    German Language

    Study subject aim

    To help students develop linguistic and communicative skills, acquire knowledge according to CEFR B2-C1 level in order to communicate spontaneously both in written and spoken forms on daily, cultural and professional topics.

    Study subject description

    The course covers an important aspect of academic language study relevant to all subject areas. The aim of the course is to reach a high (B2-C1) level of German to study in an academic institution.The course is aimed at the first-cycle students with B1-B2 level of German.The integrated skills course will develop students’ reading, writing, listening and speaking skills in an academic context. It will enable students to prepare assignments, write a research paper in German. Participation in at least 60% of the scheduled exercises is mandatory.

4 Semester

obligatory
  • STTMB17047 6 credits

    Integral Mechanics

    Study subject aim

    To acquire and assimilate knowledge about behaviour of mechanical objects under action of forces at known boundary and initial conditions. To understand main fundamental principles of statics and dynamics. To learn solving practical problems of mechanics. Introduce students to theoretical and practical principles of engineering methods for calculating strength and stiffness of structural members under simple loading. Prepare students for further structures design studies.

    Study subject description

    The module is aimed to provide knowledge about the basic laws and principles of solid mechanics. Emphasizing the state of static equilibrium (statics) of a rigid body, students are also introduced to the basics of kinematics and dynamics.
    Knowledge is provided about the types of deformation of structural members (rods, beams, shafts), the technique of calculating internal forces, stresses and deformations in cases of simple deformation (tension-compression, bending, torsion). Practical skills for determining reactional forces, strength and stiffness parameters (stresses, displacements, strains) are developed. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • APGDB16054 3 credits

    Engineering Geodesy

    Study subject aim

    Gaining knowledge of mathematical models of the Earth, coordinates and elevation systems. Learning to read maps, topographical plans. To be able to select the appropriate measurement method and apparatus engineering geodetic surveying tasks.

    Study subject description

    In the study subject of engineering geodesy, knowledge is gained about geodesy science, geodetic measurements, topographical, control geodetic photographs, other geodetic works in the construction sector. The ability to perform the inspection of geodetic devices and measurements of individual elements in laboratory conditions is provided, as well as to solve geodetic tasks and perform other work in the field of geodesy.
    Students must participate in at least 60% of exercises during the scheduled time and must complete all laboratory work.

  • APGDB22001 3 credits

    Practice of Engineering Geodesy

    Study subject aim

    Apply geodetic knowledge in practice, form plans for various purposes based on measurements and solve geodetic tasks.

    Study subject description

    Students apply theoretical knowledge in practical measurements. Based on the measurement data, they form a topographic picture, make a road profile, site design work, learn to solve various geodetic tasks.
    Students must participate in at least 60% of exercises during the scheduled time and must complete all laboratory work.

  • FMIGB24002 3 credits

    Object-Oriented, Parametric Modeling BIM 1

    Study subject aim

    To introduce the basic princips of building information model (BIM) and it’s management requirements, using computer-aided design systems. After completing this course will be able to read and understand building construction drawings. To present general engineering and computer graphics fundamentals necessary in civil engineering design. To provide with knowledge how engineering graphics methods are applied in building information modeling (BIM) design.

    Study subject description

    Building Information Modelling (BIM) application using engineering graphics software. Building information modeling computer software, and it’s features for civil engineering. Parametric modeling of building elements and their descriptive information. Preparation of building three-dimensional models. Building element and construction (concrete, metal, wood) detailing using building information modeling tools. Preparation of the drawings. Views arrangement in the drawings. Construction drawing. Material schedules and bill of materials. Building plan, section, elevation formation. Building construction drawings. Reinforced concrete, metal, wood, geotechnical design and detailing drawings. BIM and CAD data management and standards. The building structure design schemes. Plotting graphs and using them in documents.
    Students are required to attend at least 80% of the practical and laboratory classes at the scheduled time during the semester.

one of the following
  • KIUSB17116 3 credits

    Speciality English Language

    Study subject aim

    To help students acquire and develop linguistic and professional communicative skills as well as relevant knowledge so that the future specialists are able to use their acquired competences and analyse information, communicate in spoken and written language in their everyday, academic and Professional situations.

    Study subject description

    The course is targeted at the development of Civil Engineering, Architectural Engineering, Construction Technology and Management students’ C1 level of the English Language competences, for further development of skills gained in the course English Language for communication in both daily and professional situations. The course develops the independent user’s language skills, professional vocabulary, the correct technical and scientific language usage knowledge, abilities to analyse and summarize speciality literature, effective academic presentation skills. Participation in at least 60% of the scheduled exercises is mandatory.

  • KIUSB17118 3 credits

    Speciality French Language

    Study subject aim

    To help students acquire and develop linguistic and professional communicative skills as well as relevant knowledge so that the future specialists are able to use their acquired competences and analyse information, communicate in spoken and written language in their everyday, academic and Professional situations.

    Study subject description

    The course is targeted at the development of Civil Engineering, Architectural Engineering, Construction Technology and Management students’ C1 level of the French Language competences, for further development of skills gained in the course French Language for communication in both daily and professional situations. The course develops the independent user’s language skills, professional vocabulary, the correct technical and scientific language usage knowledge, abilities to analyse and summarize speciality literature, effective academic presentation skills. Participation in at least 60% of the scheduled exercises is mandatory.

  • KIUSB17117 3 credits

    Speciality German Language

    Study subject aim

    To help students acquire and develop linguistic and professional communicative skills as well as relevant knowledge so that the future specialists are able to use their acquired competences and analyse information, communicate in spoken and written language in their everyday, academic and Professional situations.

    Study subject description

    The course is targeted at the development of Civil Engineering, Architectural Engineering, Construction Technology and Management students’ C1 level of the German Language competences, for further development of skills gained in the course German Language for communication in both daily and professional situations. The course develops the independent user’s language skills, professional vocabulary, the correct technical and scientific language usage knowledge, abilities to analyse and summarize speciality literature, effective academic presentation skills. Participation in at least 60% of the scheduled exercises is mandatory.

5 Semester

obligatory
  • STGSB17174 6 credits

    Materials Science and Building Materials

    Study subject aim

    Introduce students to products manufactured for building construction, introduce them to their structure, production principles and properties, as well as an understanding of the main methods used to study products and the ability to apply these products in construction according to their purpose.

    Study subject description

    Loads of various purpose products are used in building construction, each of them made from different raw materials using specific manufacturing processes. Produced products are characterized by unique properties. These properties are determined using standardized and reliable methods. Considering all of this: product properties, purpose, end-user’s expectations, building materials are used for various purpose building construction and good health creation. Obtained knowledge and skills will help to not get lost in the vastness of available information and make reliable decisions when working in the building industry. Students are required to complete all scheduled laboratory work. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STTMB17053 6 credits

    Mechanics of Materials

    Study subject aim

    To provide the knowledge and to develop the engineering skills for analyzing strength and stiffness of deformable elements subjected to combined loading and computing skills for analysis of rods subjected to specific effects, to prepare for the studies of structural design.

    Study subject description

    The study module is intended to provide professional knowledge and understanding of engineering methods for calculating the strength, stiffness and stability of structural members. By studying this module, students will acquire theoretical knowledge and practical skills about the methods of calculating the stiffness of beams, the methods of calculating internal forces, stresses and strains in case eccentric tension-compression, oblique bending, bending with rotation and other types of combined loading, will be able to evaluate the buckling of compressed elements as well as.
    Also, students will be introduced to the calculation of structural members under dynamic (incl. cyclic) loading, as well as the basics of fracture mechanics. Students must attend at least 70% of the time scheduled practical exercises and 100% laboratory works. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17271 6 credits

    Building Architecture and Structures

    Study subject aim

    To provide knowledge about the spatial and constructional structure of various buildings and structural systems.

    Study subject description

    Spatial and constructional structure of buildings, classification, elements and their interaction. Low-rise and multi-story buildings: foundations, walls, ceilings, floors, stairs, roofs. Structural systems of frameworks, large spacious and high-rise buildings and their elements, structural solutions.
    This course cover micro-course: Material choice in designing low-carbon concrete structures.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17272 3 credits

    Building Architecture and Structures (course work)

    Study subject aim

    Architectural plan and structural design of a building.

    Study subject description

    Architectural plan and structural designs: foundtions, walls, slabs, beams and lintels, roof and other structures. Graphical execution of plans, sections, detals and junctions. Preparation of explanatory note.
    Students must attend at least 80% of the time scheduled practical lectures.

6 Semester

obligatory
  • STTMB17103 6 credits

    Structural Mechanics and Fundamentals of Elasticity Theory

    Study subject aim

    To teach fundamentals of structural design.

    Study subject description

    While studying “Structural Mechanics and Fundamentals of Elasticity Theory”, students will gain knowledge about principles and methods of structural analysis applied for bar systems and continuous constructions (deep-beams, bending plates). They will learn to apply the basic principles in simplifying and solving problems of structural mechanics, to verify the obtained results and to apply the acquired knowledge for the analysis of more complex structures. This course aims at gradually developing computational skills and the comprehensive application of structural mechanics to analyze and solve practical engineering problems. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STVNB17303 6 credits

    Technology of Construction Processes

    Study subject aim

    Providing information on construction technology and developing skills of practical application of the acquired knowledge.

    Study subject description

    Knowledge on technology of construction processes is provided; construction phases, approaches and processes are analysed, technology of construction processes and its relationship with other disciplines, evolution of construction and its future; types of piles and deepening forms, hammering piles and ensuring their quality, installation of wringing pits, works withmoulds; reinforcement forms, their connection principles, their products, reinforcement of not tightened constructions, tightening of reinforcement, reinforcement of prestressed constructions, production of, feeding of concrete mix to falsework and consolidation of concrete mix.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • VVEIB17198 3 credits

    Economics

    Study subject aim

    To provide the fundamentals of economic knowledge and the skills to apply them in professional activities.

    Study subject description

    During the couse of Economic theory student study economic theory: micro and macroeconomics, economic issues and objectives. The measurement of individual markets: supply and demand balance and its elasticity. Analyzes the market competition models: perfect and imperfect competition. Study what the consumer and producer behavior in the market, what are the costs and benefits, how they are calculated.Study, how measured by production volume – national product. Analysis of cyclical fluctuations, fiscal policy, monetary policy, unemployment and inflation, anti-inflation and stabilization policies.
    Students must attend at least 60 % of the time scheduled exercises.

  • STGGB17173 3 credits

    Engineering Geology

    Study subject aim

    An understanding of geological processes and their influence in design and construction.

    Study subject description

    Earth structure, composition and origin. Minerals and rocks. Earth’s interior and exterior geological processes. Geological structures. Tectonic processes. Development of Earth crust. Clasification of minerals, rocks and soils. Physical and mechanical features of soils. Origin and types of groundwater, physical and chemical properties. Flow of groundwater. Polution of soil and groundwater. Weathering. Eolian processes. Glaciation, deglaciation, related processes and surface forms. Water-erosion (fluvial, karst), seasonal and permafrost processes. Mineral deposits of Lithuania.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. Students must complete all scheduled laboratory work within the time specified in the schedule.

one of the following
  • STGGB17046 3 credits

    Product, Construction and their Connections for Reconstruction of Buildings

    Study subject aim

    To provide theoretical knowledge about materials, products, structures, their joints, and practical skills while choosing construction solutions for buildings under renovation.

    Study subject description

    While studying, some knowledge is acquired about products and structures for the reconstruction of the building, facade construction solutions, overlay reconstruction solutions.

  • STVNB17312 3 credits

    Reconstructions of Buildings and it's Technology

    Study subject aim

    Providing theoretical knowledge of reconstruction and repair methods and their practical application.

    Study subject description

    Methods and types of reconstruction and repair, strengthening technologies of the elements of their structures are discussed; practical skills needed to understand the technological process are developed. Accumulated long-term material wealth, major overhaul of residential and other buildings taking into account modern and future requirements are also discussed.

7 Semester

obligatory
  • STGGB17030 3 credits

    Basis of Structural Design

    Study subject aim

    To provide theoretical knowledge of loads and action and their practical skills to designings buildings and structures. Teach to design stresses combination.

    Study subject description

    Knowledge about the management of the reliability of building and assessment of loads and action during the design of a building.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 70% of the exercises.

  • STTMB17105 3 credits

    Numerical Analysis of Structures - BIM 2

    Study subject aim

    To give knowledge about finite element method. To research design of bar structures displacements and internal forces by finite element method. To give knowledge about solution of various mathematical, mechanical and engineering problems using special software.

    Study subject description

    Calculation and application of nodal displacements and internal forces of structures using the finite element method based on the principle of minimum total potential energy. Analysis and structures optimization of elastic displacements and internal forces using mathematical modeling packages. Students must attend at least 70% of the time scheduled practical exercises. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STVNB17063 3 credits

    Construction Economics

    Study subject aim

    The aim of the course – to introduce the students to the theory and analysis methods of construction economics, and to provide the analytical and practical work skills necessary to analyze the construction projects from an economic point of view.

    Study subject description

    The course introduces construction economics in the context of macro- and microenvironment. It includes topics on the characteristics of the construction sector, the significance of construction in the national economic system, construction projects’ influencing factors, construction market features, demand and supply, pricing and construction financing methods, international construction development trends, and construction economics in the context of sustainable development. The theory and methodology of the subject are mastered during lectures, by studying professional literature and interactive sources, discussions, and solving practical tasks. Special and general skills are developed during students’ homework, which includes the generation of ideas for construction projects, selection of a plot of land and a building project, cost estimates of construction, and calculation of the selling price and profit.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • VVVKB17181 3 credits

    Management

    Study subject aim

    To form basis of methodological knowledge of management and educate capabilities of professional logical thinking.

    Study subject description

    During management course contains management substance, basic concepts and their interpretation. The course conveys evolution of management, identified management object and subjects, organisation elements and surroundings, administrative solutions cycle and their phases, economic, psychological, administrative management methods. There are analysed management functions: prognostication, planning, organization, accounting, control and analysis, as well as projecting of management structures and adaptation, leadership, horizontal and vertical communication, employee evaluation, remuneration and motivation, organisation establishment and control. Students must attend at least 60% of the exercises according to the timetable.

  • STGSB17062 3 credits

    Human's Safety and Environmental Protection

    Study subject aim

    To provide knowledge and develop skills to be able to analyze problematic situations and look for alternative solutions,
    assessing possible social and environmental consequences, to familiarize with the solution of safety problems.

    Study subject description

    The legal regulation of human safety is introduced. Natural, technogenic and work environment hazards are annalyzed.
    Mechanisms of impact on humans, ways and means of possible consequences reduction are discussed. Knowledge is provided about environmental pollution caused by human activity and consequences for global pollution. Occupational risk and environmental safety management is analyzed. Students are required to complete all scheduled laboratory work. Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

8 Semester

Specialization: Geotechnics
obligatory
  • STGGB17175 6 credits

    Soil Mechanics

    Study subject aim

    General knowledge on soil basement physical and mechanical properties, their determination principles, their variation per time, application for general geotechnical problems: strength and stability of foundations, pressure to retaining walls, stability of slopes.

    Study subject description

    Abilities to select and analyze geotechnical information, based on of performed analysis to select the most expedient alternatives of geotechnical structures.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 60% of the exercises and complete all scheduled laboratory work.

  • STMEB17024 6 credits

    Steel and Timber Structures

    Study subject aim

    To develop an advanced understanding and knowledge of the behavior and design of steel and timber structures and their connection systems.
    Students must attend at least 60% of the time scheduled practical lectures.

    Study subject description

    During the study of module, the knowledge about steel and timber as building materials is gained. Timber and steel are analyzed as load bearing materials in terms of ULS (Ultimate Limit States) and SLS (Serviceability Limit States). Innovative connection design solutions are presented during the course. The module is oriented to frames, arches, trusses, domes and its design methods.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17176 3 credits

    Hydrogeology in Geotechnics

    Study subject aim

    To introduce the groundwater dynamics, hydrogeological processes and hydrogeological investigations methods.

    Study subject description

    Understanding of hydrogeological settings, groundwater dynamics features, possible interaction between groundwater and underground constructions. Evaluation of the groundwater flow into the wells, drainage systems and quarry. Evaluation underground water flow in the woter basin and in the areas of hydrotechnical buildings.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises.

  • STMEB17025 3 credits

    Integrated Project (Steel and Timber Structures; Building Engineering Systems)

    Study subject aim

    Getting the knowledge and skill design of the beam and shell elements and their joints. Getting the knowledge and skill for the installation of metal structures technology card projection.

    Study subject description

    The module is related to first part of studies for design of steel and timber structures. In this part of the module students learn about calculations of the loads, design of the beams, design of the columns, their arrangement in building and calculations of the joints, rules for drawings preparation. Design of engineering system for building will be presented in second part of module.

  • APPEB16536 3 credits

    Building Services

    Study subject aim

    Acquaintance students with the building plumbing systems: heating and ventilation, cold and hot water, wastewater and rainwater; design principles, construction and maintenance.

    Study subject description

    There are analysed main solutions building services: heating, cooling, ventilation, cold and hot water supply, sewage and energy supply system’s; location of their equiment in abuilding; interaction between architectural solution and building services, influence on energy demand of a building and indoor climate. Students must participate in at least 60% of the practice listed in the timetable.

Specialization: Design of Buildings and Structures
obligatory
  • STGGB17031 6 credits

    Reinforced Concrete Structures 1

    Study subject aim

    To give knowledge about the behavior of concrete and reinforced concrete structures, to develop the ability to calculate the resistance and to calculate the reinforcement of the concrete structures and to carry out the detailing of reinforced concrete structures.

    Study subject description

    Knowledge about concrete and reinforcement strength and deformation characteristics, concrete and reinforcement behavior in reinforced concrete elements. It is taught to calculate the resistance of bending, tensile and compressive reinforced concrete members. The ability to calculate the longitudinal and transverse reinforcement of reinforced concrete structures and to carry out the detailing of reinforced concrete elements. A general understanding of the essence the pre-stressed concrete elements.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises and complete all scheduled laboratory work.

  • STGGB17032 6 credits

    Integrated Project (Reinforced Concrete Structures 1; Steel Structures 1; Building Services)

    Study subject aim

    The main aims of course project: provide knowledge about behaviour of monolithic reinforced concrete ribbed slabs, estimation of acting loads, calculation of internal forces and the basics of engineering building sysrems. To train skills to calculate necessary reinforcement and make detailing for reinforced concrete structures, to design steel beams and axial loaded columns and joints for them.

    Study subject description

    Composing and design of monolithic reinforced concrete ribbed slabs and complex steel grilliges and steel columns design the basics of engineeeing building systems, will be executed in course project. Skills for calculation of actions and internal forces acting in reinforced concrete slab, beams and steel grillage will be gained. Calculations of necessary reinforcement in concrete slab and beams, detailing of reinforcement, design of steel beams cross-sections and detailing of connections and calculation of bearing capacity will be included in project. Detailed drawings for both cases of structures will be prepared. The subject analyses the basics of engineering building systems – heating, cooling, ventilation, hot and cold water supply, sewage disposal, power supply systems – basic structural solutions; equipment placement in the building; the interoperability of the architectural-planning solution of the building and engineering systems, the influence of the building’s energy needs and the microclimate of the premises.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STMEB17022 6 credits

    Steel Structures 1

    Study subject aim

    Steel structure forming members and their connections to the design, according to European and international standards, the necessary knowledge and skills to be granted. To develop abilities to apply that knowledge to update them on a permanent basis, taking into account the emerging structural design tools and techniques. Empowered with knowledge and skills must be the basis for building and structural systems design skills to acquire.

    Study subject description

    Module covers the first part of course for design of steel structures. Introduction into materials and assortment of steel products used in manufacture of steel structures will be provided. Collecting and combining of loads will be presented in short. Basic knowledges about connection means and their behaviour and application are included in a module. Design procedures for simple structural members – beams, columns and beam-columns – will be presented in this course. Theoretical knowledges will be solidifying ones during laboratory and practical lectures.
    Students must complete all the laboratory activities scheduled.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • APPEB16536 3 credits

    Building Services

    Study subject aim

    Acquaintance students with the building plumbing systems: heating and ventilation, cold and hot water, wastewater and rainwater; design principles, construction and maintenance.

    Study subject description

    There are analysed main solutions building services: heating, cooling, ventilation, cold and hot water supply, sewage and energy supply system’s; location of their equiment in abuilding; interaction between architectural solution and building services, influence on energy demand of a building and indoor climate. Students must participate in at least 60% of the practice listed in the timetable.

Specialization: Design of Bridge Structures
obligatory
  • STGGB17031 6 credits

    Reinforced Concrete Structures 1

    Study subject aim

    To give knowledge about the behavior of concrete and reinforced concrete structures, to develop the ability to calculate the resistance and to calculate the reinforcement of the concrete structures and to carry out the detailing of reinforced concrete structures.

    Study subject description

    Knowledge about concrete and reinforcement strength and deformation characteristics, concrete and reinforcement behavior in reinforced concrete elements. It is taught to calculate the resistance of bending, tensile and compressive reinforced concrete members. The ability to calculate the longitudinal and transverse reinforcement of reinforced concrete structures and to carry out the detailing of reinforced concrete elements. A general understanding of the essence the pre-stressed concrete elements.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises and complete all scheduled laboratory work.

  • STGGB17035 6 credits

    Integrated Project (Reinforced Concrete Structures 1; Steel Structures 1)

    Study subject aim

    The main aims of course project: provide knowledge about behaviour of monolithic reinforced concrete ribbed slabs, estimation of acting loads, calculation of internal forces and to train skills to calculate necessary reinforcement and make detailing for reinforced concrete structures, to design steel beams and axial loaded columns and joints for them.

    Study subject description

    Composing and design of monolithic reinforced concrete ribbed slabs and complex steel grilliges and steel columns will be executed in course project. Skills for calculation of actions and internal forces acting in reinforced concrete slab, beams and steel grillage will be gained. Calculations of necessary reinforcement in concrete slab and beams, detailing of reinforcement, design of steel beams cross-sections and detailing of connections and calculation of bearing capacity will be included in project. Detailed drawings for both cases of structures will be prepared.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STMEB17022 6 credits

    Steel Structures 1

    Study subject aim

    Steel structure forming members and their connections to the design, according to European and international standards, the necessary knowledge and skills to be granted. To develop abilities to apply that knowledge to update them on a permanent basis, taking into account the emerging structural design tools and techniques. Empowered with knowledge and skills must be the basis for building and structural systems design skills to acquire.

    Study subject description

    Module covers the first part of course for design of steel structures. Introduction into materials and assortment of steel products used in manufacture of steel structures will be provided. Collecting and combining of loads will be presented in short. Basic knowledges about connection means and their behaviour and application are included in a module. Design procedures for simple structural members – beams, columns and beam-columns – will be presented in this course. Theoretical knowledges will be solidifying ones during laboratory and practical lectures.
    Students must complete all the laboratory activities scheduled.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17357 3 credits

    Computer Aided Design of Structures

    Study subject aim

    To provide fundamental theoretical knowledge and to form basic practical skills in designing bridges and roads.
    To provide basic knowledge of bridge and road design methods, possibilities for applying them in design of bridge decks, abutments, piers as well as road horizontal alignment, road structures and other road elements.

    Study subject description

    The studies provide the basic knowledge necessary to form a complex approach to bridge and road design as well as to individual stages of bridge and road design. The most critical aspects of appropriate bridge design are selecting a rational structural system, materials, and basic geometrical dimensions. During the design stages, it is necessary to ensure that the bridge structures will satisfy the requirements of ultimate and serviceability limit states. During the design process of roads, it is essential to properly select the road alignment and the solutions of the road structural elements. The highway being designed must meet the requirements of design code documents.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises.

9 Semester

Specialization: Geotechnics
obligatory
  • STGGB17039 6 credits

    Reinforced Concrete and Masonry Structures

    Study subject aim

    Knowledge about the design of masonry and reinforced concrete structures by applying calculation methods based on ultimate limit states; design of masonry and reinforced concrete structures by applying modern calculation principles; evaluation and selection of proper technical solutions which allow the use of progressive building materials and saves energetic resources.

    Study subject description

    Knowledge about the mechanical properties of concrete, masonry and reinforcing steel; design of masonry and reinforced concrete structures by applying calculation methods based on ultimate limit states; design of masonry and reinforced concrete structures by applying modern calculation principles and using progressive solutions and building materials.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend 70% of the exercises.

  • STGGB17180 6 credits

    Geotechnical Investigation and Testing

    Study subject aim

    An understanding and ability of geotechnical investigation and testing.

    Study subject description

    Ability to choose appropriate methods for investigation. Ability to use laboratory and field equipment for soil parameters investigation and interpret data.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. Students are required to complete all scheduled laboratory work.

  • STGGB17198 3 credits

    Integrated Projects (Geotechnical investigation; Reinforced Concrete Structures; Building Construction Technology

    Study subject aim

    Present material for design and execution of overground structures and foundations for building, design part of engineering systems.

    Study subject description

    Design of engineering systems for building. For certain construction site and structure type choose amount of geotechnical investigations, evaluate geotechnical situation. Choose technology project for structure.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STGGB17181 3 credits

    Special Geotechnics

    Study subject aim

    To provide knowledge about environmental geotechnics, features of waste, landfill design, problems of karst and environmental protection in geotechnical works.

    Study subject description

    Knowledge about environmental geotechnics, soil stabilization, geotechnical construction in karst region, prevention of sinkholes.
    Students must attend at least 70 percent of lectures and exercises as scheduled.

Specialization: Design of Buildings and Structures
obligatory
  • STGGB17037 6 credits

    Reinforced Concrete Structures 2

    Study subject aim

    Knowledge about design of reinforced concrete structures by applying calculation methods based on service ability limit states; types and design peculiarities of over ground bearing structures; structural solutions and design peculiarities of shallow and deep foundations.

    Study subject description

    Cracking and stiffness of reinforced concrete members. Reinforced concrete structures of multi-storey buildings. Reinforced concrete structures of single-storey buildings. Foundation structures.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises.

  • STMEB17031 6 credits

    Steel Structures 2

    Study subject aim

    The ensurance of necessary knowledge and skills on the design of single-storey building steel structures, their members and connections according to the European and international standards is foreseen. Developing the abilities to apply that knowledge updating them on a permanent basis, taking into account the newly emerging structural design tools and techniques. The ensured knowledge and skills must become the basis for acquiring the competence for design of building and structural systems.

    Study subject description

    Module covers the second part of course for design of steel structures. This part introduces with structures of single storey buildings like roof trusses, portal frames and compact and built-up beam-columns. In the course the short review of collecting the loads and calculating of their combinations for single storey buildings is presented. The basic knowledge about the design and detailing of connections of building structures are ensured for students. The module covers also the questions of design of frames, roof trusses and travelling crane girders and their joints. Theoretical knowledge and design skills are consolidated during practical lectures and preparation of course project.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17038 3 credits

    Reinforced Concrete Structures 2 (Course Project)

    Study subject aim

    To provide knowledge and ability to design reinforced concrete elements: foundations, columns, slabs.

    Study subject description

    Design and construction of reinforced concrete elements: foundation, column, slab.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STMEB17034 3 credits

    Steel Structures 2 (Course Project)

    Study subject aim

    The ensurance of necessary knowledge and skills on the design of single-storey building steel structures, their members and connections according to the European and international standards is foreseen. Developing the abilities to apply that knowledge updating them on a permanent basis, taking into account the newly emerging structural design tools and techniques. The ensured knowledge and skills must become the basis for acquiring the competence for design of building and structural systems.

    Study subject description

    Module covers the second part of course for design of steel structures. This part introduces with structures of single storey buildings like roof trusses, portal frames and compact and built-up beam-columns. In the course the short review of collecting the loads and calculating of their combinations for single storey buildings is presented. The basic knowledge about the design and detailing of connections of building structures are ensured for students. The module covers also the questions of design of frames, roof trusses and travelling crane girders and their joints. Theoretical knowledge and design skills are consolidated during practical lectures and preparation of course project.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

Specialization: Design of Bridge Structures
obligatory
  • STGGB17363 9 credits

    Reinforced Concrete Transport Structures 1 (with course work)

    Study subject aim

    To introduce to the main types of reinforced concrete bridges, bridge structures, loads and actions on bridges, fundamentals of analysis, design and construction of reinforced concrete girder bridges.

    Study subject description

    Variety and functions of reinforced concrete transport structures. Historical review of construction of bridges. The most famous bridges in the world and Lithuania. Classification of bridges. Main elements, parameters and computational schemes of bridges. Clearance of bridges. Decking of bridges. Choice of construction site, type and computational scheme of bridge structure. Hydrology of bridges. Types of decks and piers. Basic rules for design of bridges. Limit state design. Loads and actions on bridges according to LST-EN. Load models and combinations for traffic bridges. Load models and combinations for footbridges. Load models and combinations for railway bridges. Load models for fatigue analysis. Load models according to SNiP and fundamentals of their application. Calculation of internal forces in slab of reinforced concrete bridge deck. Coefficient of lateral load distribution and methods for calculation.
    Students must attend at least 70 percent of lectures and exercises as scheduled.

  • STGGB17040 3 credits

    Reinforced Concrete Structures 2

    Study subject aim

    Knowledge about design of reinforced concrete structures by applying calculation methods based on serviceability limit states; types and design peculiarities of over ground bearing structures; structural solutions and design peculiarities of shallow and deep foundations.

    Study subject description

    Cracking and stiffness of reinforced concrete members. Reinforced concrete structures of multi-storey buildings. Reinforced concrete structures of single-storey buildings. Foundation structures.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester. It is mandatory to attend at least 70% of the exercises.

  • STGGB17189 3 credits

    Basics of Soil Mechanics

    Study subject aim

    An understanding of essentials of soil mechanics.

    Study subject description

    To provide knowledge and cognitions about ground properties, stresses in soil mass, settlement, soil stability, lateral earth pressure.
    Students must attend at least 70 percent of lectures as scheduled.
    Students are required to complete all scheduled laboratory work.

  • STMEB17033 3 credits

    Steel Structures 2

    Study subject aim

    The ensurance of necessary knowledge and skills on the design of single-storey building steel structures, their members and connections according to the European and international standards is foreseen. Developing the abilities to apply that knowledge updating them on a permanent basis, taking into account the newly emerging structural design tools and techniques. The ensured knowledge and skills must become the basis for acquiring the competence for design of building and structural systems.

    Study subject description

    Module covers the second part of course for design of steel structures. This part introduces with structures of single storey buildings like roof trusses, portal frames and compact and built-up beam-columns. In the course the short review of collecting the loads and calculating of their combinations for single storey buildings is presented. The basic knowledge about the design and detailing of connections of building structures are ensured for students. The module covers also the questions of design of frames, roof trusses and travelling crane girders and their joints. Theoretical knowledge and design skills are consolidated during practical lectures and preparation of course project.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

Specialization: Geotechnics
one of the following
  • STGGB17196 3 credits

    Improved Soils

    Study subject aim

    An understanding of the ground improvement methods and construction techniques.

    Study subject description

    The ground improvement methods. Ground compaction. Soil reinforcement. Chemical methods. Geosynthetic materials and applications.
    Students must attend at least 70 percent of lectures and exercises as scheduled.

  • STGGB17197 3 credits

    Technology of Geotechnical Works

    Study subject aim

    Description of traditional and up-to-date geotechnical technologies, rational application.

    Study subject description

    Historical review of technologies of geotechnical works, tendencies of development. Technologies for execution of shallow foundations. Execution technologies of pile foundations . Technologies for execution trench walls and anchors. Execution technologies of artificial soils Calculation of technological parameters.
    Students must attend at least 70 percent of lectures and exercises as scheduled.

Specialization: Design of Buildings and Structures
one of the following
  • STGGB17055 3 credits

    The Buildings Accidents and Structural Failures

    Study subject aim

    Giving knowledge of reinforced concrete, steel, wood and masonry building damage, residential, public and industrial buildings and civil engineering structures accidents. Raised capacity to plan, work independently and make decisions.

    Study subject description

    Study subjects acquired knowledge of reinforced concrete, steel, timber and masonry structures violations. Analyzes the use of buildings and design errors, residential, public and industrial buildings and civil engineering structures accidents.
    Students must attend at least 70 percent of lectures as scheduled.

  • STVNB17330 3 credits

    Technical Rationing and Pricing

    Study subject aim

    Technical rationing and pricing is subject – to introduce to principles of established construction price, rationing and pricing of the technical basis for the practical skills needed for the construction cost of the construction according to the price-forming factors of the system.

    Study subject description

    The study subject introduces construction processes and their investigative techniques and technical examination of the structure of labor rationing. Provide technical normalizing the theoretical aspects of construction processes and time input, normalizing the technical structure of the work, construction bid for entry into the procedure. Present the theoretical aspects of pricing: pricing policy, pricing of construction, construction pricing strategies, pricing techniques, state regulation of prices, customer price sensitivity and its management. Construction costs and methods of calculation of the estimated construction price. The most important resource identification and management system of wages and employee motivation, cost of materials and mechanisms and their management.
    Students must attend at least 70% of practical works at the scheduled time.

Specialization: Design of Bridge Structures
one of the following
  • STGGB17364 3 credits

    Special Structures

    Study subject aim

    To give fundamental theoretical knowledge and basic practical skills in design of hydrotechnical structures bridges and roads.

    Study subject description

    The most important aspects in good design of hyrotechnical structures is choosing rational structural system, materials and appropriate dimensioning. During the design stages it is necessary to ensure that the bridge will satisfy the requirements of ultimate and serviceability limit states.
    Students must attend at least 70 percent of lectures and exercises as scheduled.

  • STGGB17365 3 credits

    Special Structures

    Study subject aim

    To give fundamental theoretical knowledge and basic practical skills in design of hydrotechnical structures bridges and roads.

    Study subject description

    The most important aspects in good design of hyrotechnical structures is choosing rational structural system, materials and appropriate dimensioning. During the design stages it is necessary to ensure that the bridge will satisfy the requirements of ultimate and serviceability limit states.
    Students must attend at least 70 percent of lectures and exercises as scheduled.

10 Semester

Specialization: Geotechnics
obligatory
  • STVNB17296 6 credits

    Building Construction Technology and Organization (with Course Project)

    Study subject aim

    To provide general knowledge about efficient building construction technology and construction management.

    Study subject description

    Basics of building construction technology and construction organization. Safe working principles in construction. Basic of construction low.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB23101 6 credits

    Design of Structural Bases and Foundations 1 (with Course Project)

    Study subject aim

    An understanding and skills to design shallow foundations, anchors and retaining wall.

    Study subject description

    The base knowledge to calculate the shallow foundations. Select and apply mathematical methods, software and hardware for shallow foundation design and installation.
    Students must attend at least 70% of the time scheduled practical lectures.
    Students are required to complete all scheduled laboratory work.

  • STTMB17107 3 credits

    Dynamics and Stability of Buildings

    Study subject aim

    Aim of the course is to familiarize students with dynamic structural loads and instability phenomenon. To teach calculation methods of dynamic deformations and critical buckling loads.

    Study subject description

    First part of the course is dedicated to the introduction into dynamic behaviour of building structures. Students learn to determine natural and excited vibration parameters. Second part of the course aims to analyse structural instability and introduce methods for calculation of critical buckling forces. The course is taught in the flipped classroom method – study material is supplemented for students to learn individually before class. During lectures and seminars students individually and in working groups solve problems by programing algorithms and using FEM software. Proactive students have an opportunity to make a creative study project and practically investigate structural vibrations. Students must attend at least 70% of the time scheduled practical exercises.

  • STGGB23103 3 credits

    Design of Structural Bases and Foundations 1 (Course Project)

    Study subject aim

    An understanding and skills to design shallow foundations, anchors and retaining wall.

    Study subject description

    Basics of foundation design. Design data analysis. Types of shallow foundations. Calculation of foundations according to EC 1997-1. Stresses under foundation. Calculation of flexible foundations. Anchors. Retaining wall. Uderpining, soil dynamics.
    Students must attend at least 70% of the time scheduled practical lectures.

  • VVTEB16804 3 credits

    Law

    Study subject aim

    To indoctrinate students with the fundamentals of law, with system of law and order, the basic legal acts.

    Study subject description

    Description of law fundamentals: source of the law, legal relations, breach of the law and legal responsibility, efficiency of the law, legal culture, structure of legal regulation, lawful behaviour, validity of the law, gaps of the law, its elimination.

Specialization: Design of Buildings and Structures
obligatory
  • STVNB17296 6 credits

    Building Construction Technology and Organization (with Course Project)

    Study subject aim

    To provide general knowledge about efficient building construction technology and construction management.

    Study subject description

    Basics of building construction technology and construction organization. Safe working principles in construction. Basic of construction low.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17189 3 credits

    Basics of Soil Mechanics

    Study subject aim

    An understanding of essentials of soil mechanics.

    Study subject description

    To provide knowledge and cognitions about ground properties, stresses in soil mass, settlement, soil stability, lateral earth pressure.
    Students must attend at least 70 percent of lectures as scheduled.
    Students are required to complete all scheduled laboratory work.

  • STMEB17037 3 credits

    Timber Structures

    Study subject aim

    To provide knowledge to students on the demands and understand principles of wood as a building material, buildings from the timber construction, the establishment of calculating schemes, the design and construction of timber elements and connections.

    Study subject description

    Capacity to of knowledge about the wood as a building material, timber in construction, solid sawn timber, wood-based panels, timber strength grading and strength classes, timber durability, fire resistance, protection treatment, limit state design, timber joints, types of connections, construction of roof of house, log, timber frame and prefabricated houses, frames, arches, trusses, domes, their types and calculations.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STGGB17048 3 credits

    Masonry and Composite Structures

    Study subject aim

    To provide knowledge of masonry construction and the calculation of the safety limit state eligibility requirements of the construction of masonry structures, laminated stone computing and design features.

    Study subject description

    While studying the acquired knowledge and cross-laminated solid masonry bearing partitions and solutions, the calculation method and limit state design, lintels and arches and beams posieninių design.
    At least 70 percent of the exercises must be attended during the semester.

  • STTMB17107 3 credits

    Dynamics and Stability of Buildings

    Study subject aim

    Aim of the course is to familiarize students with dynamic structural loads and instability phenomenon. To teach calculation methods of dynamic deformations and critical buckling loads.

    Study subject description

    First part of the course is dedicated to the introduction into dynamic behaviour of building structures. Students learn to determine natural and excited vibration parameters. Second part of the course aims to analyse structural instability and introduce methods for calculation of critical buckling forces. The course is taught in the flipped classroom method – study material is supplemented for students to learn individually before class. During lectures and seminars students individually and in working groups solve problems by programing algorithms and using FEM software. Proactive students have an opportunity to make a creative study project and practically investigate structural vibrations. Students must attend at least 70% of the time scheduled practical exercises.

  • VVTEB16804 3 credits

    Law

    Study subject aim

    To indoctrinate students with the fundamentals of law, with system of law and order, the basic legal acts.

    Study subject description

    Description of law fundamentals: source of the law, legal relations, breach of the law and legal responsibility, efficiency of the law, legal culture, structure of legal regulation, lawful behaviour, validity of the law, gaps of the law, its elimination.

Specialization: Design of Bridge Structures
obligatory
  • STGGB17399 6 credits

    Reinforced Concrete Transport Structures 2

    Study subject aim

    To introduce to the main types of complex reinforced concrete bridges, retaining walls, tunnels and culverts and their structures, loads and actions on bridges, fundamentals of analysis, design and construction.

    Study subject description

    Prestressed concrete bridge structures and fields of application. Prestressed concrete girder bridges. Fundamentals of calculation of load carrying capacity, cracking and deformations of prestressed concrete members. Detailing of prestressed concrete members. Frame bridge structures and elements. Fundamentals of analysis and design of frame bridge elements. Basics of design of joints of frame bridges. Detailing of frame bridge elements. Arch bridge structures and elements. Fundamentals of analysis and design of arch bridge elements. Detailing of arch bridge elements. Suspension and cable-stayed bridge structures and elements. Fundamentals of analysis and design of suspension and cable-stayed bridge elements. Detailing of suspension and cable-stayed bridge elements. Types and structures of foundations of bridges. Peculiarities of design of bridge foundations. Bearings and joints of bridges and their functions. Design of bearings and joints.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STMEB17110 6 credits

    Steel Bridges 1

    Study subject aim

    To provide basic knowledge about steel bridges, calculation of stresses of their structural elements, design of elements, construction of bridges.
    Students must attend at least 60% of the time scheduled practical lectures.

    Study subject description

    Steel bridges and their classification are introduced. Truss steel bridges, their composition depending on the deck type and its position are discussed. Necessary knowledge about the cross-sections of truss bridge elements, their structural requirements, and students’ understanding of the choice and checking of cross sections of truss bridge elements are provided. The types of connections of elements of truss bridges, their construction and calculation are discussed in detail, taking into account the types of connections. Framed steel bridges, their construction and calculation are discussed. The stability of frame bridge elements is examined by applying European normative documents (EC 3) and standard FEM software packages. It shows how to choice steel for bridge structures. The peculiarities Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • STMEB17144 3 credits

    Steel Bridges 1 (with course project)

    Study subject aim

    To develop the skills on the design of steel truss bridges.

    Study subject description

    The course project is designed to give students a comprehensive understanding of the design and construction of steel bridges. The module includes the composition of the calculation scheme of steel truss bridges, determination of loads and effects depending on the purpose of the bridge, and compilation of load combinations. Students will learn to select cross-sections of supporting structural elements, construct connections, and prepare drawings. This module will provide the necessary skills and knowledge for the design and construction of structures that meet the needs of modern transport infrastructure.
    Students must attend at least 60% of the exercises during the scheduled time.

  • STTMB17107 3 credits

    Dynamics and Stability of Buildings

    Study subject aim

    Aim of the course is to familiarize students with dynamic structural loads and instability phenomenon. To teach calculation methods of dynamic deformations and critical buckling loads.

    Study subject description

    First part of the course is dedicated to the introduction into dynamic behaviour of building structures. Students learn to determine natural and excited vibration parameters. Second part of the course aims to analyse structural instability and introduce methods for calculation of critical buckling forces. The course is taught in the flipped classroom method – study material is supplemented for students to learn individually before class. During lectures and seminars students individually and in working groups solve problems by programing algorithms and using FEM software. Proactive students have an opportunity to make a creative study project and practically investigate structural vibrations. Students must attend at least 70% of the time scheduled practical exercises.

  • VVTEB16804 3 credits

    Law

    Study subject aim

    To indoctrinate students with the fundamentals of law, with system of law and order, the basic legal acts.

    Study subject description

    Description of law fundamentals: source of the law, legal relations, breach of the law and legal responsibility, efficiency of the law, legal culture, structure of legal regulation, lawful behaviour, validity of the law, gaps of the law, its elimination.

11 Semester

Specialization: Geotechnics
obligatory
  • STGGB17184 12 credits

    Professional practice

    Study subject aim

    Enforcing theoretical knowledge in geotechnics in construction or design companies under supervision of experianced experts.

    Study subject description

    Practice via indivudual tasks is performed in structural/design companics in geotechnical field. The student introduces the work to be parformed as graduate specialist. He solves the actual problems in practice under the control of an experienced specialist.

  • STGGB17049 3 credits

    Design and Numerical Modeling of Reinforced Concrete Structures - BIM 3

    Study subject aim

    Presentation of information on structural systems of buildings, loads and actions acting on buildings, formation of design diagrams and detailing of reinforced concrete and steel structures.

    Study subject description

    Structural systems for buildings. Loads and actions acting on buildings. Design situations and combinations for analysis of load bearing structures. Formation of diagrams for analysis of single story and multistory buildings. Analytical and computer – based principles of calculation of forces. Principles of detailing for reinforced concrete and steel structures and their connections.
    Students must attend at least 70 percent exercises as scheduled.

  • KILSB17034 3 credits

    Specific Purpose Language Culture

    Study subject aim

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree.

    Study subject description

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree. Participation in at least 60% of the scheduled exercises is mandatory.

Specialization: Design of Buildings and Structures
obligatory
  • STVNB17313 12 credits

    Professional Practice

    Study subject aim

    The aim of Internship is to strengthen students theoretical knowledge acquired studying special subjects, to help students to gain practical skills working in the sphere of construction engineering.

    Study subject description

    Internship is an integral part of the education process. Internship is provided in the territory of the Republic of Lithuania. Budgetary organizations, all legal types of private companies operating in areas of construction planning and management, construction design, construction, supervision and maintenance are recommended for practical trainings. Doing practical work a student performs the functions of worker (or team-leader if he/she has necessary experience). Individual tasks including determination and performance of internship base and key tasks, preparation and presentation of final report are formed for each student.

  • KILSB17034 3 credits

    Specific Purpose Language Culture

    Study subject aim

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree.

    Study subject description

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree. Participation in at least 60% of the scheduled exercises is mandatory.

Specialization: Design of Bridge Structures
obligatory
  • STGGB17398 12 credits

    Career Practice

    Study subject aim

    Adopt the theoretical knowledge in practice, improve the understanding of design, construction and maintenance of the buildings, get the practical skills and prepare for competition in labour market.

    Study subject description

    Practice as foreman, assistant, designer, drawer, manager, or similar position in design, construction, maintenance or analogous company. Student solves the real problems which arise in company, under the supervision of experienced specialist

  • STMEB17113 3 credits

    Steel Bridges 2

    Study subject aim

    Provide basic knowledge on analysis, design, construction, maintenance and rehabilitation of framed, arched, cable-stayed, suspension and cable-struted steel bridges.

    Study subject description

    Types of steel bridges and their classification. Arched, cable-stayed, suspension and cable-struted steel bridges.
    Loads on their steel bridges. Materials of cable-stayed and suspension steel bridges. Foodbridges. New structural shapes. Structural analysis and design of steel bridges. Preliminary design of steel bridges. Design connections for arched, cable-stayed, suspension and cable-struted bridges. Non-linear behaviour of such bridges and determining the strain state in their members. Adjustment of moments in the elements of bridge structures. Construction and maintenance of steel bridges.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

  • KILSB17034 3 credits

    Specific Purpose Language Culture

    Study subject aim

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree.

    Study subject description

    Standard language: its functional styles and substyles. Written and spoken language. Public and non-public language. Special and professional language. Terms as the basis of a professional language. Structural characteristics and parameters of a scientific text. Composition of a scientific text. Linguistic analysis of final works for the Bachelor`s and Master`s Degree. Participation in at least 60% of the scheduled exercises is mandatory.

Specialization: Geotechnics
one of the following
  • STGGB17194 3 credits

    Design of Geotechnical Structures

    Study subject aim

    An understanding and ability of designing the geotechnical structures.

    Study subject description

    General rules of designing geotechnical structures. The base knowledge to calculate the reinforced and steel geotechnical structures.
    Students must attend at least 70% of the time scheduled practical lectures.

  • STGGB17193 3 credits

    Geotechnical Designe of Slopes and Retaining Walls

    Study subject aim

    Give basic knowledge of the calculation and designing of slopes and underground structures.

    Study subject description

    The base knowledge to calculate the stability of the slopes and retaining structures. Must know calculating methods for designing the slopes and retaining structures.
    Students must attend at least 60% of the time scheduled practical lectures.

Specialization: Design of Buildings and Structures
one of the following
  • STGGB17049 3 credits

    Design and Numerical Modeling of Reinforced Concrete Structures - BIM 3

    Study subject aim

    Presentation of information on structural systems of buildings, loads and actions acting on buildings, formation of design diagrams and detailing of reinforced concrete and steel structures.

    Study subject description

    Structural systems for buildings. Loads and actions acting on buildings. Design situations and combinations for analysis of load bearing structures. Formation of diagrams for analysis of single story and multistory buildings. Analytical and computer – based principles of calculation of forces. Principles of detailing for reinforced concrete and steel structures and their connections.
    Students must attend at least 70 percent exercises as scheduled.

  • STMEB17038 3 credits

    Computer-Aided Modelling of Steel Structures - BIM3

    Study subject aim

    Develop knowledge and skills for the efficient design of steel structures with BIM technologies.

    Study subject description

    Module intended for efficiency of design and calculations of steel structures with BIM technologies. Theoretical knowledge establishes practical skills exercises.
    Theoretical lectures are compulsory for full-time undergraduate students in Years 1-3. Students are required to attend more than half of the lectures each semester.

Specialization: Design of Bridge Structures
one of the following
  • STMEB17114 3 credits

    Special structures

    Study subject aim

    To provide information about of the special structures tower structures (chimneys, radio ant TV towres, water towers, lighthouses) and containers (reservoirs, silos, bunkers): the main construction elements, the basic geometric and materials physical and mechanical properties, load types and their combinations, the stress calculation, the calculation of reinforcement.

    Study subject description

    Special structures tower structures (chimneys, radio ant TV towres, water towers, lighthouses) and containers (reservoirs, silos, hoppers). Types of tower structures and containers. The main structural elements of tower structures ant containers. The basic geometric and material physical and mechanical properties. Load types and combinations of loads. Stress calculations. Calculation of reinforcement.
    Students must attend at least 60% of the exercises during the scheduled time.

  • STGGB17362 3 credits

    Advanced Methods for Inspection, Repair and Reconstruction of Structures

    Study subject aim

    To introduce the problems and peculiarities of inspection, repair and reconstruction of structures.

    Study subject description

    Necessity for inspection, repair and reconstruction of structures. Advances in maintenance and control of structures. State of existing structures, problems and methods for solution. Durability of structures. Failures of structures and analysis of their causes. Maintenance and repair strategy of structures. Peculiarities of inspection and state assessment of structures. Dynamic and static testing of structures. Methods for defect identification. Control of structures. Intelligent systems for control of structures. Methods for repair and reconstruction of structures. Innovative systems for repair and strengthening of structures. Issues for increasing of durability and reliability pf structures.
    Students must attend at least 70% of the time scheduled practical lectures.

Specialization: Design of Buildings and Structures
Free choice
  • 3 credits

    Free choice module

12 Semester

Specialization: Geotechnics
obligatory
  • STGGB24803 15 credits

    Bachelor Graduation Thesis

    Study subject aim

    Preparing drawings and general conclusions.

    Study subject description

    Drawings in accordance with the performed calculations, technological and economic parts.

  • STGGB23102 6 credits

    Design of Structural Bases and Foundations 1 (with Course Project)

    Study subject aim

    An understanding and ability to design deep and pile foundations.

    Study subject description

    Must know the analytical, empirical methods for calculating and designing deep and pile foundations.
    Students must attend at least 70% of the time scheduled practical lectures.

Specialization: Design of Buildings and Structures
obligatory
  • STGGB17195 6 credits

    Foundation Engineering (with Course Project)

    Study subject aim

    General knowledge about design of various types of foundations: design requirements, rational types of foundations, their basement and dimensions calculations.

    Study subject description

    Foundation design. Skills to choose relevant foundation types, mathematical models and calculation methods for considered geotechnical situations.
    Students must attend at least 60% of the time scheduled practical lectures.

Specialization: Design of Bridge Structures
obligatory
  • STGGB24804 15 credits

    Bachelor Graduation Thesis

    Study subject aim

    To analyse investigation results, to formulate conclusion of final work and to prepare graphical part of the work.

    Study subject description

    Detailing of the technical project of final work. Analysing of the investigation results and formulation of the conclusions. Preparation of the description part. Preparation of the graphical part. Preparation of the annexes.

  • STGGB17195 6 credits

    Foundation Engineering (with Course Project)

    Study subject aim

    General knowledge about design of various types of foundations: design requirements, rational types of foundations, their basement and dimensions calculations.

    Study subject description

    Foundation design. Skills to choose relevant foundation types, mathematical models and calculation methods for considered geotechnical situations.
    Students must attend at least 60% of the time scheduled practical lectures.

Specialization: Design of Buildings and Structures
one of the following
  • STMEB24801 15 credits

    Bachelor Graduation Thesis

    Study subject aim

    Transition of knowledge’s and skill’s in the field of design of elements and joints of structures.

    Study subject description

    Design of building bases and foundations. Fire calculation of constructions. Technological or economic part, architectural part of the thesis. Drawings of the architectural, structural and technological part. Preparation of the explanatory part of the final work.

  • STGGB24802 15 credits

    Bachelor Graduation Thesis

    Study subject aim

    Formation of diagram for analysis of a building. Arrangement of loads. Calculation of forces for load bearing structures of building. Combination of forces. Analysis of forces in load bearing structures of buildings. Calculation of reinforcement for load bearing members of building.

    Study subject description

    Formation of diagram for analysis of a building. Arrangement of loads. Calculation of forces for load bearing structures of building. Combination of forces.
    Students must attend at least 70% of the time scheduled practical lectures.

Statistics

Metric Value
Enrolled students 19
Enrolled to FT 13
Min FT grade 6.47

Further study options

Aerospace Engineering

Environmental Engineering and Management

Management of Artificial Intelligence Solutions

Geographic Information Systems

Geotechnics

Communication of Innovation and Technology

Innovation Solution in Geomatic

Engineering Economics and Management

Engineering Economics and Management

Road Engineering and Management

Cyber Security Management (MBA)

Materials and Welding Engineering

Real Estate Management

Building Energy Engineering

Digital Graphics and Animation

Construction Products Engineering

Construction Technologies and Management

Building Information Modelling

Structural Engineering

Master of Business Administration

  • Prof. Dr Jonas Jakaitis
  • Adakras Šeštakauskas
    Lietuvos Statybininkų asociacijos prezidentas (1998)
  • Prof. Dr Habil. Rimantas Belevičius
    2021, Department of Information Technology
    rimantas.belevicius@vilniustech.lt
  • Assoc. Prof. Dr Eglė Navickienė
    Associate professor Department of Architecture
    egle.navickiene@vilniustech.lt
    (0 5) 274 5208
  • Assoc. Prof. Dr Andrej Bugajev
    Associate professor Department of Mathematical Modelling
    andrej.bugajev@vilniustech.lt
    (0 5) 274 4480
  • Prof. Dr Simona Ramanauskaitė
    Professor Department of Information Technologies
    simona.ramanauskaite@vilniustech.lt
    (0 5) 274 4507 ir 0 614 37 184
  • Dr Laima Jesevičiūtė-Ufartienė
  • Prof. Dr Renata Korsakienė
    Professor Department of Management
    renata.korsakiene@vilniustech.lt
    (0 5) 274 4876
  • Assoc. Prof. Dr Ieva Meidutė-Kavaliauskienė
    Professor Department of Business Technologies and Entrepreneurship
    ieva.meidute-kavaliauskiene@vilniustech.lt
    (0 5) 274 4881
  • Dr Neringa Vilkaitė-Vaitonė
    Chief Research Fellow Department of Management Chief Research Fellow Institute of Dynamic Management
    neringa.vilkaite-vaitone@vilniustech.lt
  • Dr Tomas Baležentis
    Chief Research Fellow Institute of Dynamic Management
    tomas.balezentis@vilniustech.lt
    0 612 41 432
  • Assoc. Prof. Dr Irena Danilevičienė
    Associate professor Department of Financial Engineering
    irena.danileviciene@vilniustech.lt
    (0 5) 274 5099
  • Assoc. Prof. Dr Nijolė Maknickienė
    Associate professor Department of Financial Engineering
    nijole.maknickiene@vilniustech.lt
    (0 5) 274 4861
  • Prof. Dr Laima Okunevičiūtė Neverauskienė
    Professor Department of Economics Engineering
    laima.okuneviciute.neverauskiene@vilniustech.lt
    (0 5) 274 4873
  • Assoc. Prof. Dr Viktorija Skvarciany
    Professor Department of Engineering Economics
    viktorija.skvarciany@vilniustech.lt
    (0 5) 274 4873
  • Assoc. Prof. Dr Viktorija Stasytytė
    Senior Research Fellow Institute of Dynamic Management
    viktorija.stasytyte@vilniustech.lt
    (0 5) 274 4952
  • Assoc. Prof. Dr Vaida Asakavičiūtė
    Professor Department of Entertainment industries
    vaida.asakaviciute@vilniustech.lt
    (0 5) 251 2321 and 0 688 64 321
  • Dr Monika Mačiulienė
  • Assoc. Prof. Dr Živilė Sederevičiūtė-Pačiauskienė
    Professor Department of Creative Communication
    zivile.sedereviciute-paciauskiene@vilniustech.lt
    (0 5) 274 5003
  • Prof. Dr Aelita Skaržauskienė
    Chief Research Fellow Department of Entertainment industries
    aelita.skarzauskiene@vilniustech.lt
    (0 5) 274 4926 and 0 698 28 037
  • Prof. Dr Rasa Smaliukienė
    Professor Department of Creative Communication
    rasa.smaliukiene@vilniustech.lt
    (0 5) 237 0694
  • Prof. Dr Jolita Šliogerienė
    Chief Research Fellow Department of Creative Communication
    jolita.sliogeriene@vilniustech.lt
    (0 5) 274 4864
  • Prof. Dr Dalius Matuzevičius
    Professor Department of Electronic Systems
    dalius.matuzevicius@vilniustech.lt
    (0 5) 274 4766
  • Prof. Dr Šarūnas Paulikas
  • Prof. Dr Artūras Serackis
    Professor Department of Electronic Systems
    arturas.serackis@vilniustech.lt
    (0 5) 274 4765
  • Assoc. Prof. Dr Dainius Udris
  • Assoc. Prof. Dr Aleksandr Vasjanov
    Associate professor Department of Computer Science and Communications Technologies
    aleksandr.vasjanov@vilniustech.lt
    (0 5) 274 4768
  • prof. dr. Jurgita Antuchevičienė
    Professor Department of Construction Management and Real Estate
    jurgita.antucheviciene@vilniustech.lt
    (0 5) 274 5233
  • Prof. Dr Darius Bačinskas
    Professor Department of Reinforced Concrete Structures and Geotechnics
    darius.bacinskas@vilniustech.lt
    (0 5) 237 0591
  • Assoc. Prof. Dr Tomas Gečys
    Associate professor Department of Steel and Composite Structures
    tomas.gecys@vilniustech.lt
    0 673 70 775
  • Assoc. Prof. Dr Vilma Jasiūnienė
    Professor Department of Roads
    vilma.jasiuniene@vilniustech.lt
    (0 5) 274 4709
  • Prof. Dr Habil. Gintaris Kaklauskas
    Professor Department of Reinforced Concrete Structures and Geotechnics
    gintaris.kaklauskas@vilniustech.lt
    (0 5) 274 5227 and 0 646 38 928
  • Assoc. Prof. Dr Laura Tupėnaitė
    Associate professor Department of Construction Management and Real Estate
    laura.tupenaite@vilniustech.lt
    0 652 80 529
  • Assoc. Prof. Dr. Jonas Šaparauskas
    Associate professor Department of Construction Management and Real Estate
    jonas.saparauskas@vilniustech.lt
    (0 5) 251 2115 and 0 612 32 194
  • Assoc. Prof. Dr Rasa Ušpalytė-Vitkūnienė
    Associate professor Department of Roads
    rasa.uspalyte@vilniustech.lt
    (0 5) 274 5072
  • Assoc. Prof. Dr Tatjana Vilutienė
  • Prof. Dr Gintautas Bureika
    Professor Department of Mobile Machinery and Railway Transport
    gintautas.bureika@vilniustech.lt
    (0 5) 274 4805 and 0 685 61 950
  • Assoc. Prof. Dr Saugirdas Pukalskas
  • Prof. Dr Alfredas Rimkus
    Professor Department of Automobile Engineering
    alfredas.rimkus@vilniustech.lt
    (0 5) 274 4791
  • Assoc. Prof. Dr Vidas Žuraulis
    Professor Department of Automobile Engineering
    vidas.zuraulis@vilniustech.lt
    (0 5) 274 4791
  • Prof. Dr Edita Baltrėnaitė-Gedienė
    Chief Research Fellow Institute of Environmental Protection
    edita.baltrenaite-gediene@vilniustech.lt
    (0 5) 274 4723
  • Dr Saloua Biyada
    Associate professor Department of Chemistry and Bioengineering
    s.biyada@vilniustech.lt
    (0 5) 251 2464
  • Prof. Dr Eimuntas Kazimieras Paršeliūnas
    Professor Department of Geodesy and Cadastre
    eimuntas.parseliunas@vilniustech.lt
    (0 5) 274 4703 and 0 699 80 401
  • Prof. Dr Saulius Vasarevičius
    Professor Department of Environment Protection and Water Engineering
    saulius.vasarevicius@vilniustech.lt
    (0 5) 274 4715
  • Assoc. Prof. Dr Alvydas Zagorskis
    Associate professor Department of Environment Protection and Water Engineering
    alvydas.zagorskis@vilniustech.lt
    (0 5) 274 4715
  • Prof. Dr Nikolaj Goranin
    Professor Department of Information Systems
    nikolaj.goranin@vilniustech.lt
    (0 5) 274 4830
  • Assoc. Prof. Dr Justinas Janulevičius
    Associate professor Department of Information Systems
    justinas.janulevicius@vilniustech.lt
    (0 5) 251 2473
  • Dr Jūratė Janutėnaitė-Bogdanienė
    Associate professor Department of Information Technologies
    j.janutenaite-bogdaniene@vilniustech.lt
    (0 5) 274 4825
  • Prof. Dr Dmitrij Šešok
    Professor Department of Information Technologies
    dmitrij.sesok@vilniustech.lt
    (0 5) 274 4826
  • Assoc. Prof Dr Irina Vinogradova-Zinkevič
    Professor Department of Information Technologies
    irina.vinogradova-zinkevic@vilniustech.lt
    9832
  • Dr Giedrius Balčiūnas
    Senior Research Fellow Laboratory of Thermal Insulating Materials and Acoustics
    giedrius.balciunas@vilniustech.lt
    (0 5) 251 2345
  • Dr Arūnas Kremensas
    Senior Research Fellow Laboratory of Thermal Insulating Materials and Acoustics Senior Research Fellow Department of Reinforced Concrete Structures and Geotechnics
    arunas.kremensas@vilniustech.lt
    (0 5) 251 2348
  • Dr Jūratė Jolanta Petronienė
  • Dr Jolanta Pranckevičienė
    Chief Research Fellow Laboratory of Concrete Technologies
    jolanta.pranckeviciene@vilniustech.lt
    (0 5) 251 2341
  • Dr Ina Pundienė
    Chief Research Fellow Laboratory of Concrete Technologies Chief Research Fellow Department of Reinforced Concrete Structures and Geotechnics Chief Research Fellow Institute of Building Materials
    ina.pundiene@vilniustech.lt
    (0 5) 251 2328
  • Prof. Dr Jaunius Urbonavičius
    Professor Department of Chemistry and Bioengineering
    jaunius.urbonavicius@vilniustech.lt
    (0 5) 274 4840
  • Assoc. Prof. Dr Ramunė Žurauskienė
    Associate professor Department of Building Materials and Fire Safety
    ramune.zurauskiene@vilniustech.lt
    0 631 89 130
  • Assoc. Prof. Dr Juozas Bielskus
    Associate professor Department of Building Energetics
    juozas.bielskus@vilniustech.lt
    (0 5) 274 4718
  • Assoc. Prof. Dr Sergejus Borodinas
    Professor Department of Applied Mechanics
    sergejus.borodinas@vilniustech.lt
    (0 5) 274 4854
  • Prof. Dr Vytautas Bučinskas
    Professor Department of Mechatronics, Robotics and Digital Manufacturing
    vytautas.bucinskas@vilniustech.lt
    (0 5) 237 0668
  • Assoc. Prof. Dr Andrius Čeponis
    Senior Research Fellow Laboratory of Experimental Mechanics Senior Research Fellow Institute of Mechanical Science
    andrius.ceponis@vilniustech.lt
    (0 5) 274 4852
  • Prof. Dr Julius Griškevičius
    Professor Department of Biomechanical Engineering
    julius.griskevicius@vilniustech.lt
    (0 5) 274 4750 and 0 687 37 782
  • Prof. Dr Raimondas Jasevičius
  • Prof. Dr Algirdas Maknickas
    Professor Department of Mechanical and Material Engineering
    algirdas.maknickas@vilniustech.lt
    (0 5) 251 2372 and 0 604 77 700
  • Assoc. Prof. Dr Jonas Matijošius
    Chief Research Fellow Laboratory of Experimental Mechanics Chief Research Fellow Civil Engineering Research Centre
    jonas.matijosius@vilniustech.lt
    (0 5) 274 4733
  • Prof. Dr Vadim Mokšin
    Professor Department of Mechanical and Material Engineering
    vadim.moksin@vilniustech.lt
    (0 5) 274 4733
  • Prof. Dr Darius Viržonis
    Professor Department of Mechatronics, Robotics and Digital Manufacturing
    darius.virzonis@vilniustech.lt
    (0 5) 274 4752
  • Giedrė Žlibinienė, Ignitis group
    Energy Smart START Head of program
  • Vita Baranauskienė, Fegda group
    Head of Human Resources
  • Monika Stonkė, PwC
    Human Capital Manager
  • Jogailė Gulbinienė, Grigeo Group
    Senior Talent Acquisition and Recruitment Partner
  • Monika Čereškienė, LTG Group
    Head of Talent Attraction
  • Žydrūnė Murauskaitė, Amber Grid
    Organisational Development Partner
  • Sanna Hedlund, Nasdaq
    Campus Lead EMEA
  • Dr. Donatas Vitkus, ISACA Lithuania
    Director of Academic Relations, Board Member
  • Erika Gaidelienė, Eika Group
    Head of Personne
  • Mantė Urbanavičienė, Lithuanian Radio and Television Centre
    HR Project Manager
  • Monika Pavalkytė, Independent consultant
  • Laura Buitkuvienė, VENIPAK
    Head of Personne
  • Vytautas Prunskus
    Administrator
    vytautas.prunskus@vilniustech.lt
    +370 5 274 4899
  • Prof. Dr. Arnoldas Norkus
    Professor
    arnoldas.norkus@vilniustech.lt
    +370 5 274 5221
  • Assoc Prof. Dr. Rimantas Mackevičius
    Associate professor
    rimantas.mackevicius@vilniustech.lt
    +370 5 274 5225
  • Assoc Prof. Dr. Rimantas Mackevičius
    Research Fellow
    rimantas.mackevicius@vilniustech.lt
    +370 5 274 5225
  • Prof. Dr. Alfonsas Daniūnas
    Chief Research Fellow
    alfonsas.daniunas@vilniustech.lt
    +370 5 274 5247
  • Prof. Dr. Alfonsas Daniūnas
    Professor
    alfonsas.daniunas@vilniustech.lt
    +370 5 274 5247
  • Prof. Dr. Alfonsas Daniūnas
    Head
    alfonsas.daniunas@vilniustech.lt
    +370 5 274 5247
  • Juozas Gervė
    Laboratory Assistant
    juozas.gerve@vilniustech.lt
    +370 5 274 4896
  • Gintaras Jurkėnas
    Head
    gintaras.jurkenas@vilniustech.lt
    +370 5 274 4896
  • Assoc Prof. Dr. Arūnas Komka
    Consultant
    arunas.komka@vilniustech.lt
    +370 5 274 5004
  • Kęstutis Paltanavičius
    Technician
    kestutis.paltanavicius@vilniustech.lt
    +370 5 274 4896
  • Assoc Prof. Dr. Robertas Balevičius
    Senior Research Fellow
    robertas.balevicius@vilniustech.lt
    +370 5 251 2393
  • Assoc Prof. Dr. Gintautas Ambrasas
    Assistant
    gintautas.ambrasas@vilniustech.lt
    +370 5 274 5233
  • Arūnas Būga
    Quality Manager
    arunas.buga@vilniustech.lt
    +370 5 274 4705
  • Assoc Prof. Dr. Vladimir Popov
    Associate professor
    vladimir.popov@vilniustech.lt
    +370 5 212 4660
  • Antanina Červokienė
    Chief Specialist
    antanina.cervokiene@vilniustech.lt
    +370 5 251 2430
  • Prof. Dr Habil. Romualdas Ginevičius
    Chief Research Fellow
    romualdas.ginevicius@vilniustech.lt
    +370 5 274 4879
  • Assoc Prof. Dr. Arūnas Jaras
    Associate professor
    arunas.jaras@vilniustech.lt
    +370 5 251 2497
  • Assoc Prof. Dr. Arūnas Jaras
    Research Fellow
    arunas.jaras@vilniustech.lt
    +370 5 251 2497
  • Gražina Jurgilienė
    Chief Manager
    grazina.jurgiliene@vilniustech.lt
    +370 5 274 4890
  • Prof. Dr. Alfredas Laurinavičius
    Professor
    alfredas.laurinavicius@vilniustech.lt
    +370 698 39 917
  • Prof. Dr. Donatas Čygas
    Dean
    donatas.cygas@vilniustech.lt
    +370 5 274 5011
  • Prof. Dr. Donatas Čygas
    Professor
    donatas.cygas@vilniustech.lt
    +370 5 274 5011
  • Prof. Dr. Donatas Čygas
    Chief Research Fellow
    donatas.cygas@vilniustech.lt
    +370 5 274 5011
  • Ričardas Kolosovskis
    Junior Research Fellow
    ricardas.kolosovskis@vilniustech.lt
    +370 5 274 4705
  • Prof. Rolandas Palekas
    Professor
    rolandas.palekas@vilniustech.lt
    +370 5 274 5208
  • Assoc Prof. Dr. Vadimas Starikovičius
    Professor
    vadimas.starikovicius@vilniustech.lt
    +370 5 251 2523
  • Assoc Prof. Dr. Vadimas Starikovičius
    Senior Research Fellow
    vadimas.starikovicius@vilniustech.lt
    +370 5 251 2523
  • Assoc Prof. Dr. Vadimas Starikovičius
    Research Fellow
    vadimas.starikovicius@vilniustech.lt
    +370 5 251 2523
  • Prof. Dr. Egidijus Rytas Vaidogas
    Professor
    egidijus.vaidogas@vilniustech.lt
    +370 5 237 0627
  • Jolanta Grigelevičienė
    Laboratory Assistant
    jolanta.grigeleviciene@vilniustech.lt
    +370 5 274 5219
  • Prof. Dr. Vytautas Turla
    Professor
    vytautas.turla@vilniustech.lt
    +370 5 274 4752
  • Prof. Dr. Vytautas Turla
    Chief Research Fellow
    vytautas.turla@vilniustech.lt
    +370 5 274 4752
  • Laima Dabulevičienė
    Administrator
    laima.dabuleviciene@vilniustech.lt
    +370 5 274 4783
  • Vladas Antanas Malinauskas
    Head of Laboratory(ies)
    vladas.malinauskas@vilniustech.lt
    +370 5 237 0568
  • Assoc Prof. Dr. Jevgenijus Kirjackis
    Lecturer
    jevgenijus.kirjackis@vilniustech.lt
    +370 5 274 4827
  • Assoc Prof. Dr. Jevgenijus Kirjackis
    Junior Research Fellow
    jevgenijus.kirjackis@vilniustech.lt
    +370 5 274 4827
  • Assoc Prof. Dr. Zita Savickienė
    Vice Dean for Studies
    zita.savickiene@vilniustech.lt
    +370 5 251 2519
  • Assoc Prof. Dr. Dainius Udris
    Professor
    dainius.udris@vilniustech.lt
    +370 5 274 4762
  • Prof. Dr. Dalius Navakauskas
    Vice-rector for research and innovation
    dalius.navakauskas@vilniustech.lt
    +370 5 274 5005
  • Prof. Dr. Dalius Navakauskas
    Professor
    dalius.navakauskas@vilniustech.lt
    +370 5 274 5005
  • Prof. Dr. Dalius Navakauskas
    Chief Research Fellow
    dalius.navakauskas@vilniustech.lt
    +370 5 274 5005
  • Jūratė Savarauskaitė
    Manager
    jurate.savarauskaite@vilniustech.lt
    +370 5 274 4753
  • Jolanta Saudargaitė
    Administrator
    jolanta.saudargaite@vilniustech.lt
    +370 5 274 4768
  • Alvydas Šlepikas
    Head of Laboratory(ies)
    alvydas.slepikas@vilniustech.lt
    +370 5 274 4764
  • Alvydas Šlepikas
    Lecturer
    alvydas.slepikas@vilniustech.lt
    +370 5 274 4764
  • Daiva Rimkienė
    Administrator
    daiva.rimkiene@vilniustech.lt
    +370 5 274 4753
  • Prof. Dr Habil. Romualdas Baušys
    Professor
    romualdas.bausys@vilniustech.lt
    +370 5 274 4847
  • Prof. Dr Habil. Romualdas Baušys
    Head
    romualdas.bausys@vilniustech.lt
    +370 5 274 4847
  • Prof. Dr. Romualdas Kliukas
    Rector
    romualdas.kliukas@vilniustech.lt
    +370 5 274 5000
  • Prof. Dr. Romualdas Kliukas
    Professor
    romualdas.kliukas@vilniustech.lt
    +370 5 274 5000
  • Prof. Dr. Romualdas Kliukas
    Chief Research Fellow
    romualdas.kliukas@vilniustech.lt
    +370 5 274 5000
  • Vitalija Keciorytė
    Lecturer
    vitalija.kecioryte@vilniustech.lt
    +370 5 237 0694
  • Regina Juškienė
    Lecturer
    regina.juskiene@vilniustech.lt
    +370 5 274 4865
  • Prof. Dr. Saulius Vasarevičius
    Professor
    saulius.vasarevicius@vilniustech.lt
    +370 5 274 4715
  • Prof. Dr. Saulius Vasarevičius
    Chief Research Fellow
    saulius.vasarevicius@vilniustech.lt
    +370 5 274 4715
  • Angelika Petrėtienė
    Lecturer
    angelika.petretiene@vilniustech.lt
    +370 5 274 4871
  • Assoc Prof. Dr. Algita Miečinskienė
    Head
    algita.miecinskiene@vilniustech.lt
    +370 5 274 4862
  • Assoc Prof. Dr. Algita Miečinskienė
    Associate professor
    algita.miecinskiene@vilniustech.lt
    +370 5 274 4862
  • Assoc Prof. Dr. Algita Miečinskienė
    Senior Research Fellow
    algita.miecinskiene@vilniustech.lt
    +370 5 274 4862
  • Assoc Prof. Dr. Gediminas Gražulevičius
    Associate professor
    gediminas.grazulevicius@vilniustech.lt
    +370 5 274 4771
  • Assoc Prof. Dr. Gediminas Gražulevičius
    Research Fellow
    gediminas.grazulevicius@vilniustech.lt
    +370 5 274 4771
  • Jelena Grankova
    Chief Manager
    aliona.grankova@vilniustech.lt
    +370 5 251 2363
  • Evelina Zigmantienė
    Senior Engineer
    evelina.zigmantiene@vilniustech.lt
    +370 5 274 4705
  • Irena Janaščiūtė
    Senior Specialist
    irena.janasciute@vilniustech.lt
    +370 5 274 4810
  • Arūnas Speičys
    Technician
    arunas.speicys@vilniustech.lt
    +370 5 274 4856
  • Assoc Prof. Dr. Ritoldas Šukys
    Lecturer
    ritoldas.sukys@vilniustech.lt
    +370 5 274 5237
  • Gintaras Junda
    Welder
    gintaras.junda@vilniustech.lt
    +370 5 274 4999
  • Dr. Ela Jarmolajeva
    Assistant
    ela.jarmolajeva@vilniustech.lt
    +370 5 251 2313
  • Ona Juršaitė
    Chief Specialist
    ona.jursaite@vilniustech.lt
    +370 5 274 4903
  • Vitalija Antanavičienė
    Senior Librarian
    vitalija.antanaviciene@vilniustech.lt
    +370 5 274 4901
  • Genė Kesylytė
    Chief Librarian
    gene.kesylyte@vilniustech.lt
    +370 5 274 4900
  • Lilija Mosiejienė
    Senior Librarian
    lilija.mosiejiene@vilniustech.lt
    +370 5 274 4901
  • Vida Dumpienė
    Senior Librarian
    vida.dumpiene@vilniustech.lt
    +370 5 274 4900
  • Irina Klimiato
    Chief Librarian
    irina.klimiato@vilniustech.lt
    +370 5 274 4900
  • Rita Golšanskienė
    Chief Specialist
    rita.golsanskiene@vilniustech.lt
    +370 5 237 0574
  • Jūratė Mikštaitė-Kazlauskienė
    Senior Specialist
    j.mikstaite-kazlauskiene@vilniustech.lt
    +370 5 274 4911
  • Rita Kudzienė
    Director
    rita.kudziene@vilniustech.lt
    +370 5 274 5009
  • Lina Damanskaitė
    Chief Manager
    lina.damanskaite@vilniustech.lt
    +370 5 274 4724
  • Lina Damanskaitė
    Junior Research Fellow
    lina.damanskaite@vilniustech.lt
    +370 5 274 4724
  • Jolanta Marcinkevičienė
    Head
    jolanta.marcinkeviciene@vilniustech.lt
    +370 5 274 5030
  • Rima Palionienė
    Head
    rima.palioniene@vilniustech.lt
    +370 5 274 4955
  • Assoc Prof. Dr. Nikolaj Višniakov
    Chief Research Fellow
    nikolaj.visniakov@vilniustech.lt
    +370 682 22 866
  • Assoc Prof. Dr. Nikolaj Višniakov
    Professor
    nikolaj.visniakov@vilniustech.lt
    +370 682 22 866
  • Ina Gujienė
    Vice Director
    ina.gujiene@vilniustech.lt
    +370 5 251 2515
  • Alina Lukšėnienė
    Administrator
    alina.lukseniene@vilniustech.lt
    +370 5 251 2324
  • Assoc Prof. Dr. Loreta Kanapeckienė
    -
    loreta.kanapeckiene@vilniustech.lt
    +370 5 237 0663
  • Assoc Prof. Dr. Loreta Kanapeckienė
    Associate professor
    loreta.kanapeckiene@vilniustech.lt
    +370 5 237 0663
  • Jūratė Giedraitienė
    Chief Specialist
    jurate.giedraitiene@vilniustech.lt
    +370 5 274 4949
  • Daiva Jurėnienė
    Administrator
    daiva.jureniene@vilniustech.lt
    +370 5 274 5225
  • Assoc Prof. Dr. Kęstutis Čiuprinskas
    -
    kestutis.ciuprinskas@vilniustech.lt
    +370 5 274 4730
  • Assoc Prof. Dr. Kęstutis Čiuprinskas
    Associate professor
    kestutis.ciuprinskas@vilniustech.lt
    +370 5 274 4730
  • Assoc Prof. Dr. Kęstutis Čiuprinskas
    Research Fellow
    kestutis.ciuprinskas@vilniustech.lt
    +370 5 274 4730
  • Rita Anzelma Raguckienė
    Administrator
    rita.raguckiene@vilniustech.lt
    +370 5 274 4766
  • Loreta Vilimienė
    Chief Specialist
    loreta.vilimiene@vilniustech.lt
    +370 5 274 4973
  • Assoc Prof. Dr. Raimundas Putrimas
    Metrology Specialist
    raimundas.putrimas@vilniustech.lt
    +370 5 274 4705
  • Aleksas Jaunius
    Photographer
    aleksas.jaunius@vilniustech.lt
    +370 5 274 4937
  • Assoc Prof. Dr. Darius Linartas
    Associate professor
    darius.linartas@vilniustech.lt
    +370 5 274 5203
  • Vitalijus Podlužnas
    -
    vitalijus.podluznas@vilniustech.lt
    +370 5 251 2269
  • Elena Matulevičienė
    Chief Manager
    elena.matuleviciene@vilniustech.lt
    +370 5 274 4940
  • Jūratė Butkienė
    Lecturer
    jurate.butkiene@vilniustech.lt
    +370 5 274 4865
  • Assoc Prof. Dr. Edita Riaubienė
    Associate professor
    edita.riaubiene@vilniustech.lt
    +370 5 274 5209
  • Dr. Jelena Suchanova
    Associate professor
    jelena.suchanova@vilniustech.lt
    +370 5 274 4865
  • Prof. Dr. Saulius Raslanas
    Chief Research Fellow
    saulius.raslanas@vilniustech.lt
    +370 5 274 5232
  • Prof. Dr. Saulius Raslanas
    Professor
    saulius.raslanas@vilniustech.lt
    +370 5 274 5232
  • Prof. Dr. Jūratė Sužiedelytė Visockienė
    Chief Research Fellow
    juratesuziedelyte-visockiene@vilniustech.lt
    +370 5 274 4701
  • Prof. Dr. Jūratė Sužiedelytė Visockienė
    Professor
    juratesuziedelyte-visockiene@vilniustech.lt
    +370 5 274 4701
  • Prof. Dr. Jūratė Sužiedelytė Visockienė
    Head
    juratesuziedelyte-visockiene@vilniustech.lt
    +370 5 274 4701
  • Dr. Eglė Tumelienė
    Associate professor
    egle.tumeliene@vilniustech.lt
    +370 5 251 2360
  • Assoc Prof. Dr. Olga Suboč
    Associate professor
    olga.suboc@vilniustech.lt
    +370 5 274 4828
  • Assoc Prof. Dr. Olga Suboč
    Research Fellow
    olga.suboc@vilniustech.lt
    +370 5 274 4828
  • Prof. Dr. Arnas Kačeniauskas
    Chief Research Fellow
    arnas.kaceniauskas@vilniustech.lt
    +370 5 274 4913
  • Prof. Dr. Arnas Kačeniauskas
    Professor
    arnas.kaceniauskas@vilniustech.lt
    +370 5 274 4913
  • Prof. Dr. Arnas Kačeniauskas
    Senior Research Fellow
    arnas.kaceniauskas@vilniustech.lt
    +370 5 274 4913
  • Assoc Prof. Dr. Augustinas Maceika
    Associate professor
    augustinas.maceika@vilniustech.lt
    +370 5 274 4751
  • Remigijus Ašmenskas
    Chief Manager
    remigijus.asmenskas@vilniustech.lt
    +370 5 274 5216
  • Prof. Dr. Dalia Dijokienė
    Dean
    dalia.dijokiene@vilniustech.lt
    +370 650 67 897
  • Prof. Dr. Dalia Dijokienė
    Professor
    dalia.dijokiene@vilniustech.lt
    +370 650 67 897
  • Marytė Rimutė Zaleckaitė
    Art Director
    maryte-rimute.zaleckaite@vilniustech.lt
    +370 655 01 729
  • Daiva Kuliominė
    Head
    daiva.kuliomine@vilniustech.lt
    +370 5 274 4961
  • Assoc Prof. Dr. Aušra Zigmontienė
    Head
    ausra.zigmontiene@vilniustech.lt
    +370 5 237 0588
  • Assoc Prof. Dr. Aušra Zigmontienė
    Associate professor
    ausra.zigmontiene@vilniustech.lt
    +370 5 237 0588
  • Assoc Prof. Dr. Aušra Zigmontienė
    Chief Specialist
    ausra.zigmontiene@vilniustech.lt
    +370 5 237 0588
  • Vida Šimulionytė
    Administrator
    vida.simulionyte@vilniustech.lt
    +370 5 274 5212
  • Marina Zabulionienė
    Manager
    marina.zabulioniene@vilniustech.lt
    +370 5 251 2407
  • Lilija Puipienė
    Associate professor
    lilija.puipiene@vilniustech.lt
    +370 5 274 5203
  • Dr. Jonas Zubaitis
    Assistant
    jonas.zubaitis@vilniustech.lt
    +370 5 274 4763
  • Prof. Dr. Zenonas Turskis
    Chief Research Fellow
    zenonas.turskis@vilniustech.lt
    +370 688 64 112
  • Danas Špokas
    Chief Engineer
    danas.spokas@vilniustech.lt
    +370 5 274 4812
  • Olegas Kesminas
    Art Director
    olegas.kesminas@vilniustech.lt
    +370 652 76 231
  • Prof. Dr. Gintautas Bureika
    Professor
    gintautas.bureika@vilniustech.lt
    +370 5 274 4805
  • Prof. Dr. Gintautas Bureika
    Chief Research Fellow
    gintautas.bureika@vilniustech.lt
    +370 5 274 4805
  • Assoc Prof. Dr. Juozas Merkevičius
    Associate professor
    juozas.merkevicius@vilniustech.lt
    +370 686 17 423
  • Rima Juršėnienė
    Administrator
    rima.jurseniene@vilniustech.lt
    +370 5 274 4871
  • Dr. Egidijus Pakalnis
    Assistant
    egidijus.pakalnis@vilniustech.lt
    +370 5 274 4821
  • Rasa Karnilaitė
    Administrator
    rasa.karnilaite@vilniustech.lt
    +370 5 274 4936
  • Janina Skrickaja
    Chief Specialist
    janina.skrickaja@vilniustech.lt
    +370 5 251 2272
  • Prof. Dr. Dalius Mažeika
    Dean
    dalius.mazeika@vilniustech.lt
    +370 5 274 5014
  • Prof. Dr. Dalius Mažeika
    Chief Research Fellow
    dalius.mazeika@vilniustech.lt
    +370 5 274 5014
  • Prof. Dr. Dalius Mažeika
    Professor
    dalius.mazeika@vilniustech.lt
    +370 5 274 5014
  • Kęstutis Ežerskis
    Chief Specialist
    kestutis.ezerskis@vilniustech.lt
    +370 5 251 2521
  • Prof. Dr. Aldona Jarašūnienė
    Professor
    aldona.jarasuniene@vilniustech.lt
    +370 5 274 4780
  • Prof. Dr. Aldona Jarašūnienė
    Chief Research Fellow
    aldona.jarasuniene@vilniustech.lt
    +370 5 274 4780
  • Jūratė Vinogradova
    Lecturer
    jurate.vinogradova@vilniustech.lt
    +370 5 274 4852
  • Jūratė Vinogradova
    Administrator
    jurate.vinogradova@vilniustech.lt
    +370 5 274 4852
  • Genovaitė Bučinskienė
    Administrator
    genovaite.bucinskiene@vilniustech.lt
    +370 5 274 4834
  • Algirdas Jukavičius
    Watcher
    algirdas.jukavicius@vilniustech.lt
    +370 5 274 4811
  • Algimantas Lazauskas
    Foreman of Joiners
    algimantas.lazauskas@vilniustech.lt
    +370 5 274 4983
  • Assoc Prof. Dr. Stasys Steišūnas
    Senior Research Fellow
    stasys.steisunas@vilniustech.lt
    +370 5 275 3775
  • Assoc Prof. Dr. Stasys Steišūnas
    Associate professor
    stasys.steisunas@vilniustech.lt
    +370 5 275 3775
  • Assoc Prof. Dr. Stasys Steišūnas
    Research Fellow
    stasys.steisunas@vilniustech.lt
    +370 5 275 3775
  • Assoc Prof. Dr. Sonata Vdovinskienė
    Assistant
    sonata.vdovinskiene@vilniustech.lt
    +370 5 274 4852
  • Assoc Prof. Dr. Sonata Vdovinskienė
    Junior Research Fellow
    sonata.vdovinskiene@vilniustech.lt
    +370 5 274 4852
  • Antanas Menčinskas
    Foreman of finishers
    antanas.mencinskas@vilniustech.lt
    +370 5 274 4983
  • Vida Kaminskienė
    Administrator
    vida.kaminskiene@vilniustech.lt
    +370 5 274 4729
  • Assoc Prof. Dr. Irmantas Gedzevičius
    Head
    irmantas.gedzevicius@vilniustech.lt
    +370 5 274 4734
  • Assoc Prof. Dr. Irmantas Gedzevičius
    Associate professor
    irmantas.gedzevicius@vilniustech.lt
    +370 5 274 4734
  • Assoc Prof. Dr. Vaida Zemlickienė
    Senior Research Fellow
    vaida.zemlickiene@vilniustech.lt
    +370 699 52 163
  • Dr. Darius Zabulionis
    Associate professor
    darius.zabulionis@vilniustech.lt
    +370 5 274 4829
  • Dr. Darius Zabulionis
    Research Fellow
    darius.zabulionis@vilniustech.lt
    +370 5 274 4825
  • Vida Sviackevičienė
    Chief Specialist
    vida.sviackeviciene@vilniustech.lt
    +370 5 274 4956
  • Valentina Leonova
    Head of Laboratory(ies)
    valentina.leonova@vilniustech.lt
    +370 5 274 4702
  • Assoc Prof. Dr. Marina Valentukevičienė
    Professor
    marina.valentukeviciene@vilniustech.lt
    +370 5 274 4724
  • Violeta Vilkevič
    Lecturer
    violeta.vilkevic@vilniustech.lt
    +370 5 274 4852
  • Assoc Prof. Dr. Arnoldas Šneideris
    Associate professor
    arnoldas.sneideris@vilniustech.lt
    +370 5 274 5067
  • Assoc Prof. Dr. Arnoldas Šneideris
    Research Fellow
    arnoldas.sneideris@vilniustech.lt
    +370 5 274 5067
  • Assoc Prof. Dr. Dovilė Deltuvienė
    Vice Dean for Studies and Communication
    dovile.deltuviene@vilniustech.lt
    +370 5 274 4846
  • Assoc Prof. Dr. Dovilė Deltuvienė
    Associate professor
    dovile.deltuviene@vilniustech.lt
    +370 5 274 4846
  • Assoc Prof. Dr. Robertas Pečeliūnas
    Head
    robertas.peceliunas@vilniustech.lt
    +370 5 274 4792
  • Assoc Prof. Dr. Robertas Pečeliūnas
    Associate professor
    robertas.peceliunas@vilniustech.lt
    +370 5 274 4792
  • Assoc Prof. Dr. Robertas Pečeliūnas
    Research Fellow
    robertas.peceliunas@vilniustech.lt
    +370 5 274 4792
  • Ana Miliunec
    Office Cleaner
    ana.miliunec@vilniustech.lt
    +370 5 274 4899
  • Assoc Prof. Dr. Eugeniuš Stupak
    Assistant
    eugenius.stupak@vilniustech.lt
    +370 5 251 2175
  • Prof. Dr. Antanas Šapalas
    Professor
    antanas.shapalas@vilniustech.lt
    +370 5 274 5228
  • Dr. Arūnas Grigelionis
    Assistant
    arunas.grigelionis@vilniustech.lt
    +370 5 251 2184
  • Dr. Arūnas Grigelionis
    Junior Research Fellow
    arunas.grigelionis@vilniustech.lt
    +370 5 251 2184
  • Assoc Prof. Dr. Artur Rogoža
    Associate professor
    artur.rogoza@vilniustech.lt
    +370 5 274 4710
  • Assoc Prof. Dr. Artur Rogoža
    Research Fellow
    artur.rogoza@vilniustech.lt
    +370 5 274 4710
  • Algirdas Šulinskas
    -
    algirdas.sulinskas@vilniustech.lt
    +370 5 251 2269
  • Prof. Dr. Paulius Miškinis
    Assistant
    paulius.miskinis@vilniustech.lt
    +370 5 274 4827
  • Prof. Dr. Paulius Miškinis
    Junior Research Fellow
    paulius.miskinis@vilniustech.lt
    +370 5 274 4827
  • Prof. Dr. Gintaras Stauskis
    Professor
    gintaras.stauskis@vilniustech.lt
    +370 5 237 0564
  • Prof. Dr. Gintaras Stauskis
    Chief Research Fellow
    gintaras.stauskis@vilniustech.lt
    +370 5 237 0564
  • Piotr Gumovskij
    Pilot - Instructor
    piotr.gumovskij@vilniustech.lt
    +370 5 274 4813
  • Prof. Dr. Manuela Tvaronavičienė
    Professor
    manuela.tvaronaviciene@vilniustech.lt
    +370 5 274 4872
  • Prof. Dr. Manuela Tvaronavičienė
    Chief Research Fellow
    manuela.tvaronaviciene@vilniustech.lt
    +370 5 274 4872
  • Prof. Dr. Darius Bazaras
    Chief Research Fellow
    darius.bazaras@vilniustech.lt
    +370 5 274 4776
  • Prof. Dr. Darius Bazaras
    Professor
    darius.bazaras@vilniustech.lt
    +370 5 274 4776
  • Prof. Dr. Darius Bazaras
    Head
    darius.bazaras@vilniustech.lt
    +370 5 274 4776
  • Markas Lavrinavičius
    Pilot Operator for Simulator
    markas.lavrinavicius@vilniustech.lt
    +370 5 237 0680
  • Prof. Dr. Rima Tamošiūnienė
    Professor
    rima.tamosiuniene@vilniustech.lt
    +370 5 274 4863
  • Prof. Dr. Rima Tamošiūnienė
    Chief Research Fellow
    rima.tamosiuniene@vilniustech.lt
    +370 5 274 4863
  • Prof. Dr Habil. Raimondas Čiegis
    Chief Research Fellow
    raimondas.ciegis@vilniustech.lt
    +370 5 274 4828
  • Prof. Dr Habil. Raimondas Čiegis
    Professor
    raimondas.ciegis@vilniustech.lt
    +370 5 274 4828
  • Prof. Dr Habil. Raimondas Čiegis
    Head
    raimondas.ciegis@vilniustech.lt
    +370 5 274 4828
  • Prof. Dr Habil. Raimondas Čiegis
    Senior Research Fellow
    raimondas.ciegis@vilniustech.lt
    +370 5 274 4828
  • Assoc Prof. Dr. Dovilė Merkevičiūtė
    Associate professor
    dovile.merkeviciute@vilniustech.lt
    +370 5 251 2313
  • Elena Glėbienė
    Lecturer
    elena.glebiene@vilniustech.lt
    +370 5 274 4825
  • Assoc Prof. Dr. Asta Kičaitė
    Associate professor
    asta.kicaite@vilniustech.lt
    +370 5 274 5238
  • Assoc Prof. Dr. Natalija Lepkova
    Associate professor
    natalija.lepkova@vilniustech.lt
    +370 5 274 5236
  • Assoc Prof. Dr. Natalija Lepkova
    Research Fellow
    natalija.lepkova@vilniustech.lt
    +370 5 274 5236
  • Assoc Prof. Dr. Audrius Novickas
    Professor
    audrius.novickas@vilniustech.lt
    +370 5 274 5210
  • Assoc Prof. Dr. Audrius Novickas
    Head
    audrius.novickas@vilniustech.lt
    +370 5 274 5210
  • Prof. Dr. Nijolė Batarlienė
    Professor
    nijole.batarliene@vilniustech.lt
    +370 5 274 4778
  • Prof. Dr. Olegas Prentkovskis
    Dean
    olegas.prentkovskis@vilniustech.lt
    +370 5 274 5017
  • Prof. Dr. Olegas Prentkovskis
    Chief Research Fellow
    olegas.prentkovskis@vilniustech.lt
    +370 5 274 5017
  • Prof. Dr. Olegas Prentkovskis
    Professor
    olegas.prentkovskis@vilniustech.lt
    +370 5 274 5017
  • Lolita Kairytė
    Quality Manager
    lolita.kairyte@vilniustech.lt
    +370 5 274 4896
  • Mykolas Lazdinis
    Electrician
    mykolas.lazdinis@vilniustech.lt
    +370 5 274 4999
  • Vilda Braukylienė
    Chief Specialist
  • Margarita Apanavičienė
    Office Cleaner
    margarita.apanaviciene@vilniustech.lt
    +370 5 274 4823
  • Česlav Vilkevič
    Technician
    ceslav.vilkevic@vilniustech.lt
    +370 5 237 0630
  • Assoc Prof. Dr. Saulius Lisauskas
    Assistant
    saulius.lisauskas@vilniustech.lt
    +370 5 274 4762
  • Olegas Rybakovas
    Chief Specialist
  • Prof. Dr. Olegas Černašėjus
    Professor
    olegas.cernasejus@vilniustech.lt
    +370 5 274 4733
  • Prof. Dr. Olegas Černašėjus
    Chief Research Fellow
    olegas.cernasejus@vilniustech.lt
    +370 5 274 4733
  • Dr. Arūnas Ribikauskas
    Assistant
    arunas.ribikauskas@vilniustech.lt
    +370 5 237 0622
  • Virginija Bobinienė
    Administrator
    virginija.bobiniene@vilniustech.lt
    +370 5 274 4797
  • Assoc Prof. Dr. Saulius Nagurnas
    Associate professor
    saulius.nagurnas@vilniustech.lt
    +370 5 274 4793
  • Assoc Prof. Dr. Saulius Nagurnas
    Junior Research Fellow
    saulius.nagurnas@vilniustech.lt
    +370 5 274 4793
  • Danguolė Baltranienė
    Head
    danguole.baltraniene@vilniustech.lt
    +370 5 274 5036
  • Lina Dubikaltytė-Raugalienė
    Lecturer
    l.dubikaltyte-raugaliene@vilniustech.lt
    +370 5 274 4865
  • Assoc Prof. Dr. Andžela Šešok
    Associate professor
    andzela.sesok@vilniustech.lt
    +370 5 274 4748
  • Assoc Prof. Dr. Birutė Pliuskuvienė
    Associate professor
    birute.pliuskuviene@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Birutė Pliuskuvienė
    Research Fellow
    birute.pliuskuviene@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Regimantas Dauknys
    Associate professor
    regimantas.dauknys@vilniustech.lt
    +370 5 274 4724
  • Assoc Prof. Dr. Daiva Burkšaitienė
    Assistant
    daiva.burksaitiene@vilniustech.lt
    +370 5 274 4863
  • Prof. Dr. Jurij Novickij
    Chief Research Fellow
    jurij.novickij@vilniustech.lt
    +370 5 251 2107
  • Valdona Judickaitė-Žukovskė
    Lecturer
    valdona.judickaite-zukovske@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Girūta Kazakevičiūtė-Januškevičienė
    Associate professor
    giruta.kazakeviciute-januskeviciene@vilniustech.lt
    +370 5 274 4848
  • Assoc Prof. Dr. Girūta Kazakevičiūtė-Januškevičienė
    Senior Research Fellow
    giruta.kazakeviciute-januskeviciene@vilniustech.lt
    +370 5 274 4848
  • Assoc Prof. Dr. Jolanta Sereikaitė
    Chief Research Fellow
    jolanta.sereikaite@vilniustech.lt
    +370 5 274 4972
  • Assoc Prof. Dr. Boleslovas Krikštaponis
    Senior Engineer
    boleslovas.krikstaponis@vilniustech.lt
    +370 5 274 4705
  • Assoc Prof. Dr. Aistė Andriušytė
    Assistant
    aiste.andriusyte@vilniustech.lt
    +370 5 274 5229
  • Jolanta Čiuprinskienė
    Chief Manager
    jolanta.ciuprinskiene@vilniustech.lt
    +370 5 274 4708
  • Assoc Prof. Dr. Nerija Banaitienė
    Associate professor
    nerija.banaitiene@vilniustech.lt
    +370 5 274 5098
  • Prof. Dr. Audrius Banaitis
    Chief Research Fellow
    audrius.banaitis@vilniustech.lt
    +370 5 274 5307
  • Prof. Dr. Audrius Banaitis
    Professor
    audrius.banaitis@vilniustech.lt
    +370 5 274 5307
  • Prof. Dr. Audrius Banaitis
    Senior Research Fellow
    audrius.banaitis@vilniustech.lt
    +370 5 274 5307
  • Assoc Prof. Dr. Vaidotas Šapalas
    Assistant
    vaidotas.sapalas@vilniustech.lt
    +370 5 251 2466
  • Jonas Vasiliauskas
    Chief Pilot Instructor-Supervisor
    jonas.vasiliauskas@vilniustech.lt
    +370 5 274 4811
  • Assoc Prof. Dr. Marius Mickaitis
    Associate professor
    marius.mickaitis@vilniustech.lt
    +370 5 274 5225
  • Dr. Andrius Maneikis
    Associate professor
    andrius.maneikis@vilniustech.lt
    +370 5 274 4834
  • Dr. Andrius Maneikis
    Technician
    andrius.maneikis@vilniustech.lt
    +370 5 251 2460
  • Donatas Valiulis
    Lecturer
    donatas.valiulis@vilniustech.lt
    +370 5 274 4752
  • Assoc Prof. Dr. Tatjana Vilutienė
    Professor
    tatjana.vilutiene@vilniustech.lt
    +370 5 274 5233
  • Assoc Prof. Dr. Tatjana Vilutienė
    Chief Research Fellow
    tatjana.vilutiene@vilniustech.lt
    +370 5 274 5233
  • Margarita Liutkevičienė
    Chief Manager
    margarita.liutkeviciene@vilniustech.lt
    +370 5 274 4718
  • Margarita Liutkevičienė
    Technician
    margarita.liutkeviciene@vilniustech.lt
    +370 5 274 4718
  • Dr. Dainius Rusakevičius
    Associate professor
    dainius.rusakevicius@vilniustech.lt
    +370 5 251 2484
  • Dr. Dainius Rusakevičius
    Research Fellow
    dainius.rusakevicius@vilniustech.lt
    +370 5 251 2484
  • Assoc Prof. Dr. Igor Iljin
    Associate professor
    igor.iljin@vilniustech.lt
    +370 5 274 4752
  • Assoc Prof. Dr. Nikolaj Šešok
    Associate professor
    nikolaj.sesok@vilniustech.lt
    +370 5 274 4736
  • Tomas Žemaitis
    Head of Laboratory(ies)
    tomas.zemaitis@vilniustech.lt
    +370 5 274 4714
  • Tomas Žemaitis
    Junior Research Fellow
    tomas.zemaitis@vilniustech.lt
    +370 5 274 4714
  • Assoc Prof. Dr. Jelena Mamčenko
    Assistant
    jelena.mamcenko@vilniustech.lt
    +370 5 274 4825
  • Assoc Prof. Dr. Jelena Mamčenko
    Junior Research Fellow
    jelena.mamcenko@vilniustech.lt
    +370 5 274 4825
  • Prof. Dr. Stanislav Dadelo
    Professor
    s.dadelo@vilniustech.lt
    +370 5 274 4926
  • Prof. Dr. Stanislav Dadelo
    Chief Research Fellow
    s.dadelo@vilniustech.lt
    +370 5 237 0694
  • Assoc Prof. Dr. Andrius Ušinskas
    Assistant
    andrius.usinskas@vilniustech.lt
    +370 5 274 4766
  • Assoc Prof. Dr. Andrius Ušinskas
    Research Fellow
    andrius.usinskas@vilniustech.lt
    +370 5 274 4766
  • Assoc Prof. Dr. Nerijus Paulauskas
    Associate professor
    nerijus.paulauskas@vilniustech.lt
    +370 5 237 0587
  • Assoc Prof. Dr. Nerijus Paulauskas
    Research Fellow
    nerijus.paulauskas@vilniustech.lt
    +370 5 237 0587
  • Prof. Gintaras Čaikauskas
    Professor
    gintaras.caikauskas@vilniustech.lt
    +370 698 74 536
  • Prof. Dr. Aleksandras Krylovas
    Professor
    aleksandras.krylovas@vilniustech.lt
    +370 5 274 4827
  • Assoc Prof. Dr. Vaidotas Trinkūnas
    Chancellor
    vaidotas.trinkunas@vilniustech.lt
    +370 5 274 5006
  • Assoc Prof. Dr. Vaidotas Trinkūnas
    Associate professor
    vaidotas.trinkunas@vilniustech.lt
    +370 5 274 5006
  • Prof. Dr. Audrius Vaitkus
    Professor
    audrius.vaitkus@vilniustech.lt
    +370 5 251 2355
  • Prof. Dr. Audrius Vaitkus
    Chief Research Fellow
    audrius.vaitkus@vilniustech.lt
    +370 5 251 2355
  • Karina Kulikauskaitė
    Administrator
    karina.kulikauskaite@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Romuald Obuchovski
    Associate professor
    romuald.obuchovski@vilniustech.lt
    +370 5 274 4705
  • Assoc Prof. Dr. Romuald Obuchovski
    Research Fellow
    romuald.obuchovski@vilniustech.lt
    +370 5 274 4705
  • Inga Garnytė-Sapranavičienė
    Associate professor
    i.garnyte-sapranaviciene@vilniustech.lt
    +370 5 274 5249
  • Vilija Remeikienė
    Head
    vilija.remeikiene@vilniustech.lt
    +370 5 274 5024
  • Assoc Prof. Dr. Jurga Naimavičienė
    Vice Director
    jurga.naimaviciene@vilniustech.lt
    +370 5 237 0581
  • Assoc Prof. Dr. Jurga Naimavičienė
    Associate professor
    jurga.naimaviciene@vilniustech.lt
    +370 5 237 0581
  • Dr. Liudmila Lobanova
    Lecturer
    liudmila.lobanova@vilniustech.lt
    +370 5 274 4875
  • Mantas Lipnickas
    Lecturer
    mantas.lipnickas@vilniustech.lt
    +370 5 274 4766
  • Assoc Prof. Dr. Violeta Šniokienė
    Director
    violeta.sniokiene@vilniustech.lt
    +370 5 274 5027
  • Assoc Prof. Dr. Violeta Šniokienė
    Associate professor
    violeta.sniokiene@vilniustech.lt
    +370 5 274 5027
  • Assoc Prof. Dr. Regimantas Čiupaila
    Professor
    regimantas.ciupaila@vilniustech.lt
    +370 5 274 4827
  • Assoc Prof. Dr. Regimantas Čiupaila
    Senior Research Fellow
    regimantas.ciupaila@vilniustech.lt
    +370 5 274 4827
  • Vida Pipirienė
    Lecturer
    vida.pipiriene@vilniustech.lt
    +370 5 274 4875
  • Assoc Prof. Linas Naujokaitis
    Professor
    linas.naujokaitis@vilniustech.lt
    +370 687 31 996
  • Prof. Dr Habil. Romualdas Navickas
    Professor
    romualdas.navickas@vilniustech.lt
    +370 5 251 2102
  • Prof. Dr Habil. Romualdas Navickas
    Chief Research Fellow
    romualdas.navickas@vilniustech.lt
    +370 5 251 2102
  • Assoc Prof. Dr. Dainius Paliulis
    Associate professor
    dainius.paliulis@vilniustech.lt
    +370 5 251 2133
  • Prof. Dr. Jonas Gradauskas
    Professor
    jonas.gradauskas@vilniustech.lt
    +370 5 251 2179
  • Prof. Dr. Jonas Gradauskas
    Chief Research Fellow
    jonas.gradauskas@vilniustech.lt
    +370 5 251 2179
  • Dr. Mečislavas Griškevičius
    Assistant
    mecislavas.griskevicius@vilniustech.lt
    +370 5 274 5238
  • Assoc Prof. Dr. Vitalijus Rudzinskas
    Associate professor
    vitalijus.rudzinskas@vilniustech.lt
    +370 5 274 4741
  • Assoc Prof. Dr. Vitalijus Rudzinskas
    Research Fellow
    vitalijus.rudzinskas@vilniustech.lt
    +370 5 274 4741
  • Prof. Dr Habil. Antanas Čenys
    Chief Research Fellow
    antanas.cenys@vilniustech.lt
    +370 5 251 2180
  • Prof. Dr Habil. Antanas Čenys
    Professor
    antanas.cenys@vilniustech.lt
    +370 5 251 2180
  • Loreta Valaitytė
    Chief Manager
    loreta.valaityte@vilniustech.lt
    +370 5 237 0648
  • Loreta Valaitytė
    Junior Research Fellow
    loreta.valaityte@vilniustech.lt
    +370 5 237 0648
  • Prof. Dr. Jūratė Černevičiūtė
    Professor
    jurate.cerneviciute@vilniustech.lt
    +370 5 237 0694
  • Prof. Dr. Jūratė Černevičiūtė
    Chief Research Fellow
    jurate.cerneviciute@vilniustech.lt
    +370 5 237 0694
  • Assoc Prof. Dr. Danutė Sližytė
    Associate professor
    danute.slizyte@vilniustech.lt
    +370 5 274 5225
  • Assoc Prof. Dr. Danutė Sližytė
    Research Fellow
    danute.slizyte@vilniustech.lt
    +370 5 251 2464
  • Assoc Prof. Dr. Gediminas Vaičiūnas
    Senior Research Fellow
    gediminas.vaiciunas@vilniustech.lt
    +370 5 274 4802
  • Assoc Prof. Dr. Gediminas Vaičiūnas
    Associate professor
    gediminas.vaiciunas@vilniustech.lt
    +370 5 274 4802
  • Assoc Prof. Dr. Saugirdas Pukalskas
    Professor
    saugirdas.pukalskas@vilniustech.lt
    +370 655 29 573
  • Assoc Prof. Dr. Saugirdas Pukalskas
    Chief Research Fellow
    saugirdas.pukalskas@vilniustech.lt
    +370 655 29 573
  • Prof. Dr. Džigita Nagrockienė
    Chief Research Fellow
    dzigita.nagrockiene@vilniustech.lt
    +370 5 274 5237
  • Prof. Dr. Džigita Nagrockienė
    Professor
    dzigita.nagrockiene@vilniustech.lt
    +370 5 274 5237
  • Prof. Dr. Džigita Nagrockienė
    Head
    dzigita.nagrockiene@vilniustech.lt
    +370 5 274 5237
  • Assoc Prof. Dr. Giedrius Garbinčius
    -
    giedrius.garbincius@vilniustech.lt
    +370 5 274 4795
  • Assoc Prof. Dr. Giedrius Garbinčius
    Associate professor
    giedrius.garbincius@vilniustech.lt
    +370 5 274 4795
  • Assoc Prof. Dr. Gražina Grigaliūnaitė-Vonsevičienė
    Associate professor
    g.grigaliunaite-vonseviciene@vilniustech.lt
    +370 5 251 2177
  • Assoc Prof. Dr. Natalja Kosareva
    Associate professor
    natalja.kosareva@vilniustech.lt
    +370 5 251 2480
  • Assoc Prof. Dr. Natalja Kosareva
    Research Fellow
    natalja.kosareva@vilniustech.lt
    +370 5 251 2480
  • Dr. Aurelija Mažintienė
    Assistant
    aurelija.mazintiene@vilniustech.lt
    +370 5 274 4882
  • Prof. Dr. Audrius Čereška
    Chief Research Fellow
    audrius.cereska@vilniustech.lt
    +370 5 274 4733
  • Prof. Dr. Vadim Mokšin
    Professor
    vadim.moksin@vilniustech.lt
    +370 5 274 4733
  • Prof. Dr. Vadim Mokšin
    Chief Research Fellow
    vadim.moksin@vilniustech.lt
    +370 5 274 4733
  • Assoc Prof. Dr. Gytis Mykolaitis
    Assistant
    gytis.mykolaitis@vilniustech.lt
    +370 5 274 4834
  • Assoc Prof. Dr. Raimonda Martinkutė-Kaulienė
    Associate professor
    raimonda.martinkute-kauliene@vilniustech.lt
    +370 5 274 4862
  • Assoc Prof. Dr. Irma Šileikienė
    Assistant
    irma.sileikiene@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Irma Šileikienė
    Junior Research Fellow
    irma.sileikiene@vilniustech.lt
    +370 5 274 4825
  • Assoc Prof. Dr. Ramunė Žurauskienė
    Senior Research Fellow
    ramune.zurauskiene@vilniustech.lt
    +370 631 89 130
  • Assoc Prof. Dr. Ramunė Žurauskienė
    Associate professor
    ramune.zurauskiene@vilniustech.lt
    +370 631 89 130
  • Assoc Prof. Dr. Olga Lingaitienė
    Associate professor
    olga.lingaitiene@vilniustech.lt
    +370 5 274 4882
  • Assoc Prof. Dr. Olga Lingaitienė
    Senior Research Fellow
    olga.lingaitiene@vilniustech.lt
    +370 5 274 4882
  • Assoc Prof. Dr. Teresė Leonavičienė
    Associate professor
    terese.leonaviciene@vilniustech.lt
    +370 5 251 2480
  • Assoc Prof. Dr. Teresė Leonavičienė
    Senior Research Fellow
    terese.leonaviciene@vilniustech.lt
    +370 5 251 2480
  • Prof. Dr. Algirdas Baškys
    Professor
    algirdas.baskys@vilniustech.lt
    +370 5 274 4767
  • Dr. Lina Rutkienė
    Head
    lina.rutkiene@vilniustech.lt
    +370 5 274 4871
  • Dr. Lina Rutkienė
    Assistant
    lina.rutkiene@vilniustech.lt
    +370 5 274 4871
  • Arvydas Bagdonavičius
    Expert
    arvydas.bagdonavicius@vilniustech.lt
    +370 687 20 252
  • Assoc Prof. Dr. Vladislavas Petraškevičius
    Partner Professor
    vladislavas.petraskevicius@vilniustech.lt
    +370 5 239 5571
  • Assoc Prof. Dr. Arnoldas Gabrėnas
    Head
    arnoldas.gabrenas@vilniustech.lt
    +370 5 274 5207
  • Assoc Prof. Dr. Arnoldas Gabrėnas
    Associate professor
    arnoldas.gabrenas@vilniustech.lt
    +370 5 274 5207
  • Bronius Merkys
    Lecturer
    bronius.merkys@vilniustech.lt
    +370 5 274 4821
  • Assoc Prof. Dr. Lada Markejevaitė
    Associate professor
    lada.markejevaite@vilniustech.lt
    +370 5 274 5207
  • Assoc Prof. Dr. Viktoras Vorobjovas
    Professor
    viktoras.vorobjovas@vilniustech.lt
    +370 5 274 4708
  • Assoc Prof. Dr. Viktoras Vorobjovas
    Research Fellow
    viktoras.vorobjovas@vilniustech.lt
    +370 5 274 4708
  • Prof. Dr. Algirdas Juozapaitis
    Professor
    algirdas.juozapaitis@vilniustech.lt
    +370 5 274 5228
  • Prof. Dr. Algirdas Juozapaitis
    Chief Research Fellow
    algirdas.juozapaitis@vilniustech.lt
    +370 5 274 5228
  • Prof. Dr Habil. Artūras Kaklauskas
    Chief Research Fellow
    arturas.kaklauskas@vilniustech.lt
    +370 5 274 5234
  • Prof. Dr Habil. Artūras Kaklauskas
    Professor
    arturas.kaklauskas@vilniustech.lt
    +370 5 274 5234
  • Prof. Dr Habil. Artūras Kaklauskas
    Head
    arturas.kaklauskas@vilniustech.lt
    +370 5 274 5234
  • Prof. Dr Habil. Marijonas Bogdevičius
    Chief Research Fellow
    marijonas.bogdevicius@vilniustech.lt
    +370 5 274 4782
  • Prof. Dr Habil. Marijonas Bogdevičius
    Professor
    marijonas.bogdevicius@vilniustech.lt
    +370 5 274 4782
  • Dr. Violeta Voišnienė
    Associate professor
    violeta.voisniene@vilniustech.lt
    +370 5 274 4839
  • Daiva Triukaitė
    Administrator
    daiva.triukaite@vilniustech.lt
    +370 5 274 4843
  • Dr. Birutė Juodagalvienė
    Vice Dean for Studies
    birute.juodagalviene@vilniustech.lt
    +370 5 274 5239
  • Dr. Birutė Juodagalvienė
    Associate professor
    birute.juodagalviene@vilniustech.lt
    +370 5 274 4848
  • Dr. Birutė Juodagalvienė
    Research Fellow
    birute.juodagalviene@vilniustech.lt
    +370 5 274 4848
  • Prof. Dr. Edita Baltrėnaitė-Gedienė
    Chief Research Fellow
    edita.baltrenaite-gediene@vilniustech.lt
    +370 5 274 4723
  • Assoc Prof. Dr. Jelena Selivonec
    Associate professor
    jelena.selivonec@vilniustech.lt
    +370 5 274 5216
  • Diana Volungevičienė
    Administrator
    diana.volungeviciene@vilniustech.lt
    +370 5 274 4748
  • Kristina Braškuvienė
    Administrator
    kristina.braskuviene@vilniustech.lt
    +370 5 274 4848
  • Assoc Prof. Dr. Jurgis Medzvieckas
    Associate professor
    jurgis.medzvieckas@vilniustech.lt
    +370 5 274 5220
  • Assoc Prof. Dr. Jurgis Medzvieckas
    Senior Research Fellow
    jurgis.medzvieckas@vilniustech.lt
    +370 5 274 5220
  • Ingrida Kasperaitienė
    Director
    ingrida.kasperaitiene@vilniustech.lt
    +370 5 274 5021
  • Assoc Prof. Dr. Artūras Jakubavičius
    Professor
    arturas.jakubavicius@vilniustech.lt
    +370 687 36 632
  • Assoc Prof. Dr. Vytautas Grigonis
    Associate professor
    vytautas.grigonis@vilniustech.lt
    +370 5 274 4719
  • Assoc Prof. Dr. Eligijus Toločka
    Associate professor
    eligijus.tolocka@vilniustech.lt
    +370 5 274 4733
  • Assoc Prof. Dr. Eligijus Toločka
    Junior Research Fellow
    eligijus.tolocka@vilniustech.lt
    +370 5 274 4733
  • Prof. Dr. Vytautas Bučinskas
    Chief Research Fellow
    vytautas.bucinskas@vilniustech.lt
    +370 5 237 0668
  • Prof. Dr. Vytautas Bučinskas
    Professor
    vytautas.bucinskas@vilniustech.lt
    +370 5 237 0668
  • Prof. Dr. Vytautas Bučinskas
    Head
    vytautas.bucinskas@vilniustech.lt
    +370 5 237 0668
  • Dr. Raimonda Bublienė
    Head
    raimonda.bubliene@vilniustech.lt
    +370 5 274 4868
  • Dr. Raimonda Bublienė
    Associate professor
    raimonda.bubliene@vilniustech.lt
    +370 5 274 4868
  • Assoc Prof. Dr. Mindaugas Rimeika
    Assistant
    mindaugas.rimeika@vilniustech.lt
    +370 5 274 4713
  • Vita Marytė Janušauskienė
    Lecturer
    vita-maryte.janusauskiene@vilniustech.lt
    +370 5 274 4883
  • Prof. Dr. Darius Bačinskas
    Chief Research Fellow
    darius.bacinskas@vilniustech.lt
    +370 5 237 0591
  • Prof. Dr. Darius Bačinskas
    Professor
    darius.bacinskas@vilniustech.lt
    +370 5 237 0591
  • Assoc Prof. Dr. Vaidotas Šarka
    Partner Associate Professor
    vaidotas.sarka@vilniustech.lt
    +370 699 57 555
  • Assoc Prof. Dr. Nomeda Bratčikovienė
    Associate professor
    nomeda.bratcikoviene@vilniustech.lt
    +370 5 251 2547
  • Assoc Prof. Dr. Nomeda Bratčikovienė
    Research Fellow
    nomeda.bratcikoviene@vilniustech.lt
    +370 5 251 2547
  • Gintautas Sinkevičius
    Administrator
    gintautas.sinkevicius@vilniustech.lt
    +370 699 15 213
  • Assoc Prof. Dr. Šarūnas Mikaliūnas
    Associate professor
    sarunas.mikaliunas@vilniustech.lt
    +370 5 274 4785
  • Assoc Prof. Dr. Šarūnas Mikaliūnas
    Research Fellow
    sarunas.mikaliunas@vilniustech.lt
    +370 5 274 4785
  • Assoc Prof. Dr. Gintas Šaučiuvėnas
    Associate professor
    gintas.sauciuvenas@vilniustech.lt
    +370 5 274 5230
  • Prof. Dr Habil. Gintaris Kaklauskas
    Chief Research Fellow
    gintaris.kaklauskas@vilniustech.lt
    +370 5 274 5227
  • Prof. Dr Habil. Gintaris Kaklauskas
    Professor
    gintaris.kaklauskas@vilniustech.lt
    +370 5 274 5227
  • Renata Pilipavičienė
    Chief Specialist
    renata.pilipaviciene@vilniustech.lt
    +370 5 251 2312
  • Prof. Dr. Eimuntas Kazimieras Paršeliūnas
    Professor
    eimuntas.parseliunas@vilniustech.lt
    +370 5 274 4703
  • Assoc Prof. Dr. Saulius Valentinavičius
    Associate professor
    saulius.valentinavicius@vilniustech.lt
    +370 5 274 4832
  • Assoc Prof. Dr. Saulius Valentinavičius
    Junior Research Fellow
    saulius.valentinavicius@vilniustech.lt
    +370 5 274 4832
  • Prof. Dr. Almantas Liudas Samalavičius
    Chief Research Fellow
    almantas.liudas.samalavicius@vilniustech.lt
    +370 5 274 5210
  • Prof. Dr. Almantas Liudas Samalavičius
    Professor
    almantas.liudas.samalavicius@vilniustech.lt
    +370 5 274 5210
  • Prof. Dr. Renata Korsakienė
    Chief Research Fellow
    renata.korsakiene@vilniustech.lt
    +370 5 274 4876
  • Prof. Dr. Renata Korsakienė
    Professor
    renata.korsakiene@vilniustech.lt
    +370 5 274 4876
  • Prof. Dr. Renata Korsakienė
    Head
    renata.korsakiene@vilniustech.lt
    +370 5 274 4876
  • Edmundas Kapusta
    Head
    edmundas.kapusta@vilniustech.lt
    +370 5 274 4948
  • Michail Ilkevič
    Plumber
    michail.ilkevic@vilniustech.lt
    +370 5 274 4999
  • Prof. Dr. Juozas Valivonis
    Chief Research Fellow
    juozas.valivonis@vilniustech.lt
    +370 5 274 5224
  • Prof. Dr. Juozas Valivonis
    Professor
    juozas.valivonis@vilniustech.lt
    +370 5 274 5224
  • Prof. Dr. Juozas Valivonis
    Head
    juozas.valivonis@vilniustech.lt
    +370 5 274 5224
  • Assoc Prof. Dr. Daiva Makutėnienė
    Head
    daiva.makuteniene@vilniustech.lt
    +370 5 274 4851
  • Assoc Prof. Dr. Daiva Makutėnienė
    Associate professor
    daiva.makuteniene@vilniustech.lt
    +370 5 274 4851
  • Assoc Prof. Dr. Daiva Makutėnienė
    Research Fellow
    daiva.makuteniene@vilniustech.lt
    +370 5 274 4851
  • Assoc Prof. Dr. Kęstutis Valančius
    Professor
    kestutis.valancius@vilniustech.lt
    +370 5 274 4718
  • Assoc Prof. Dr. Kęstutis Valančius
    Chief Research Fellow
    kestutis.valancius@vilniustech.lt
    +370 5 274 4718
  • Regina Laima Berezūnienė
    Storekeeper
    regina-laima.berezuniene@vilniustech.lt
    +370 692 20 625
  • Assoc Prof. Saulius Mikštas
    Associate professor
    saulius.mikstas@vilniustech.lt
    +370 5 212 6503
  • Prof. Dr. Jolita Šliogerienė
    Chief Research Fellow
    jolita.sliogeriene@vilniustech.lt
    +370 5 274 4864
  • Prof. Dr. Jolita Šliogerienė
    Professor
    jolita.sliogeriene@vilniustech.lt
    +370 5 274 4864
  • Prof. Dr. Jolita Šliogerienė
    Head
    jolita.sliogeriene@vilniustech.lt
    +370 5 274 4864
  • Dr. Artūras Kriukovas
    Assistant
    arturas.kriukovas@vilniustech.lt
    +370 5 274 4848
  • Prof. Dr. Jelena Stankevičienė
    Professor
    jelena.stankeviciene@vilniustech.lt
    +370 5 274 4861
  • Assoc Prof. Dr. Lina Bagdžiūnaitė-Litvinaitienė
    Associate professor
    lina.litvinaitiene@vilniustech.lt
    +370 5 274 4713
  • Vilma Vaicekiūtienė
    Head
    vilma.vaicekiutiene@vilniustech.lt
    +370 5 274 4902
  • Arvydas Stankevičius
    Head of Laboratory(ies)
    arvydas.stankevicius@vilniustech.lt
    +370 5 237 0587
  • Arvydas Stankevičius
    Lecturer
    arvydas.stankevicius@vilniustech.lt
    +370 5 237 0587
  • Prof. Dr. Kristina Daunoravičienė
    Professor
    kristina.daunoraviciene@vilniustech.lt
    +370 5 274 4748
  • Prof. Dr. Kristina Daunoravičienė
    Chief Research Fellow
    kristina.daunoraviciene@vilniustech.lt
    +370 5 274 4748
  • Viktor Pozlevič
    Chief Specialist
    viktor.pozlevic@vilniustech.lt
    +370 5 251 2197
  • Dr. Olga Kizinievič
    Chief Research Fellow
    olga.kizinievic@vilniustech.lt
    +370 5 251 2342
  • Dr. Viktor Kizinievič
    Senior Research Fellow
    viktor.kizinievic@vilniustech.lt
  • Algis Tuminas
    Chief Specialist
    algis.tuminas@vilniustech.lt
    +370 5 274 4980
  • Algis Tuminas
    Junior Research Fellow
    algis.tuminas@vilniustech.lt
    +370 5 274 4980
  • Vaida Plauškaitė
    Vice Director
    vaida.plauskaite@vilniustech.lt
    +370 5 274 4898
  • Assoc Prof. Dr. Neringa Dirgėlienė
    Associate professor
    neringa.dirgeliene@vilniustech.lt
    +370 5 274 5225
  • Assoc Prof. Dr. Neringa Dirgėlienė
    Research Fellow
    neringa.dirgeliene@vilniustech.lt
    +370 5 274 5225
  • Andrėjus Jančuro
    Finisher
    andrejus.jancuro@vilniustech.lt
    +370 5 274 4983
  • Dr. Oleg Bystrov
    Associate professor
    oleg.bystrov@vilniustech.lt
    +370 5 274 4913
  • Dr. Oleg Bystrov
    Research Fellow
    oleg.bystrov@vilniustech.lt
    +370 5 274 4913
  • Prof. Dr. Nikolaj Goranin
    Chief Research Fellow
    nikolaj.goranin@vilniustech.lt
    +370 5 274 4830
  • Prof. Dr. Nikolaj Goranin
    Professor
    nikolaj.goranin@vilniustech.lt
    +370 5 274 4830
  • Prof. Dr. Nikolaj Goranin
    Head
    nikolaj.goranin@vilniustech.lt
    +370 5 274 4830
  • Lina Narbutienė
    Administrator
    lina.narbutiene@vilniustech.lt
    +370 5 274 4982
  • Assoc Prof. Dr. Kęstutis Urbonas
    Associate professor
    kestutis.urbonas@vilniustech.lt
    +370 5 251 2466
  • Ieva Tamulevičiūtė
    Chief Manager
    ieva.tamuleviciute@vilniustech.lt
    +370 5 274 5201
  • Mindaugas Morkūnas
    Lecturer
    mindaugas.morkunas@vilniustech.lt
    +370 5 274 4839
  • Assoc Prof. Dr. Tomas Rekašius
    Associate professor
    tomas.rekasius@vilniustech.lt
    +370 5 251 2547
  • Assoc Prof. Dr. Tomas Rekašius
    Research Fellow
    tomas.rekasius@vilniustech.lt
    +370 5 251 2547
  • Ina Pankrašovaitė
    Lecturer
    ina.pankrasovaite@vilniustech.lt
    +370 5 274 4848
  • Assoc Prof. Dr. Darius Guršnys
    Assistant
    darius.gursnys@vilniustech.lt
    +370 5 274 4768
  • Assoc Prof. Dr. Darius Guršnys
    Junior Research Fellow
    darius.gursnys@vilniustech.lt
    +370 5 274 4768
  • Assoc Prof. Dr. Mindaugas Rybokas
    Assistant
    mindaugas.rybokas@vilniustech.lt
    +370 5 274 4825
  • Assoc Prof. Dr. Mindaugas Rybokas
    Junior Research Fellow
    mindaugas.rybokas@vilniustech.lt
    +370 5 274 4825
  • Assoc Prof. Dr. Rasa Vaiškūnaitė
    Vice Dean for Research and International Relations
    rasa.vaiskunaite@vilniustech.lt
    +370 5 274 5090
  • Assoc Prof. Dr. Rasa Vaiškūnaitė
    Chief Research Fellow
    rasa.vaiskunaite@vilniustech.lt
    +370 5 274 5090
  • Assoc Prof. Dr. Rasa Vaiškūnaitė
    Professor
    rasa.vaiskunaite@vilniustech.lt
    +370 5 274 5090
  • Assoc Prof. Dr. Vaidotas Vaišis
    Director
    vaidotas.vaisis@vilniustech.lt
    +370 655 43 878
  • Assoc Prof. Dr. Vaidotas Vaišis
    Associate professor
    vaidotas.vaisis@vilniustech.lt
    +370 655 43 878
  • Assoc Prof. Dr. Živilė Jezerskė
    Associate professor
    zivile.jezerske@vilniustech.lt
    +370 5 274 4877
  • Assoc Prof. Dr. Živilė Jezerskė
    Senior Research Fellow
    zivile.jezerske@vilniustech.lt
    +370 5 274 4877
  • Prof. Dr. Jurgita Antuchevičienė
    Professor
    jurgita.antucheviciene@vilniustech.lt
    +370 5 274 5233
  • Prof. Dr. Jurgita Antuchevičienė
    Chief Research Fellow
    jurgita.antucheviciene@vilniustech.lt
    +370 5 274 5233
  • Dr. Edita Šarkienė
    Associate professor
    edita.sarkiene@vilniustech.lt
    +370 5 274 4708
  • Dr. Edita Šarkienė
    Research Fellow
    edita.sarkiene@vilniustech.lt
    +370 5 274 4708
  • Andrej Tunevič
    Lecturer
  • Andrej Tunevič
    Senior Specialist
  • Assoc Prof. Dr. Kęstutis Bartnykas
    Assistant
    kestutis.bartnykas@vilniustech.lt
    +370 5 274 4766
  • Prof. Dr. Ieva Meidutė-Kavaliauskienė
    Chief Research Fellow
    ieva.meidute-kavaliauskiene@vilniustech.lt
    +370 5 274 4881
  • Prof. Dr. Ieva Meidutė-Kavaliauskienė
    Professor
    ieva.meidute-kavaliauskiene@vilniustech.lt
    +370 5 274 4881
  • Prof. Dr. Ieva Meidutė-Kavaliauskienė
    Head
    ieva.meidute-kavaliauskiene@vilniustech.lt
    +370 5 274 4881
  • Prof. Dr. Daiva Jurevičienė
    Chief Research Fellow
    daiva.jureviciene@vilniustech.lt
    +370 5 274 4873
  • Prof. Dr. Daiva Jurevičienė
    Professor
    daiva.jureviciene@vilniustech.lt
    +370 5 274 4873
  • Prof. Dr. Daiva Jurevičienė
    Head
    daiva.jureviciene@vilniustech.lt
    +370 5 274 4873
  • Prof. Dr. Vida Davidavičienė
    Dean
    vida.davidaviciene@vilniustech.lt
    +370 5 274 5018
  • Prof. Dr. Vida Davidavičienė
    Chief Research Fellow
    vida.davidaviciene@vilniustech.lt
    +370 5 274 5018
  • Prof. Dr. Vida Davidavičienė
    Professor
    vida.davidaviciene@vilniustech.lt
    +370 5 274 5018
  • Assoc Prof. Dr. Eva Trinkūnienė
    Associate professor
    eva.trinkuniene@vilniustech.lt
    +370 5 274 4869
  • Assoc Prof. Dr. Rasa Ušpalytė-Vitkūnienė
    Associate professor
    rasa.uspalyte@vilniustech.lt
    +370 5 274 5072
  • Assoc Prof. Dr. Rasa Ušpalytė-Vitkūnienė
    Senior Research Fellow
    rasa.uspalyte@vilniustech.lt
    +370 5 274 5072
  • Vaida Larionovienė
    Chief Specialist
    vaida.larionoviene@vilniustech.lt
    +370 5 274 4945
  • Assoc Prof. Dr. Lina Bertulienė
    Associate professor
    lina.bertuliene@vilniustech.lt
    +370 5 274 4721
  • Assoc Prof. Dr. Lina Bertulienė
    Junior Research Fellow
    lina.bertuliene@vilniustech.lt
    +370 5 274 4721
  • Darius Gerasimčikas
    Chief Specialist
  • Prof. Dr. Rasa Smaliukienė
    Professor
    rasa.smaliukiene@vilniustech.lt
    +370 5 237 0694
  • Prof. Dr. Rasa Smaliukienė
    Chief Research Fellow
    rasa.smaliukiene@vilniustech.lt
    +370 5 237 0694
  • Assoc Prof. Dr. Edgaras Neniškis
    Professor
    edgaras.neniskis@vilniustech.lt
    +370 5 274 5096
  • Assoc Prof. Dr. Dominykas Šlikas
    Associate professor
    dominykas.slikas@vilniustech.lt
    +370 5 274 4705
  • Assoc Prof. Dr. Dominykas Šlikas
    Senior Research Fellow
    dominykas.slikas@vilniustech.lt
    +370 5 274 4705
  • Prof. Dr. Algirdas Maknickas
    Chief Research Fellow
    algirdas.maknickas@vilniustech.lt
    +370 5 251 2372
  • Prof. Dr. Algirdas Maknickas
    Professor
    algirdas.maknickas@vilniustech.lt
    +370 5 251 2372
  • Prof. Dr. Algirdas Maknickas
    Senior Research Fellow
    algirdas.maknickas@vilniustech.lt
    +370 5 251 2372
  • Jelena Stankevič
    Lecturer
    jelena.stankevic@vilniustech.lt
    +370 5 274 4943
  • Audronė Gurklienė
    Layout Specialist
    audrone.gurkliene@vilniustech.lt
    +370 5 237 0601
  • Vincas Šnirpūnas
    Lecturer
    vincas.snirpunas@vilniustech.lt
    +370 5 274 4821
  • Prof. Dr. Julius Griškevičius
    Chief Research Fellow
    julius.griskevicius@vilniustech.lt
    +370 5 274 4750
  • Prof. Dr. Julius Griškevičius
    Professor
    julius.griskevicius@vilniustech.lt
    +370 5 274 4750
  • Prof. Dr. Julius Griškevičius
    Head
    julius.griskevicius@vilniustech.lt
    +370 5 274 4750
  • Assoc Prof. Dr. Arūnas Šaltis
    Partner Associate Professor
    arunas.saltis@vilniustech.lt
    +370 5 274 4171
  • Dr. Aušra Stankiuvienė
    Assistant
    ausra.stankiuviene@vilniustech.lt
    +370 5 274 5238
  • Assoc Prof. Dr. Aidas Vasilis Vasiliauskas
    Associate professor
    aidas.vasilis-vasiliauskas@vilniustech.lt
    +370 5 274 4882
  • Assoc Prof. Dr. Alvydas Zagorskis
    Chief Research Fellow
    alvydas.zagorskis@vilniustech.lt
    +370 5 274 4715
  • Assoc Prof. Dr. Alvydas Zagorskis
    Senior Research Fellow
    alvydas.zagorskis@vilniustech.lt
    +370 5 274 4715
  • Assoc Prof. Dr. Alvydas Zagorskis
    Associate professor
    alvydas.zagorskis@vilniustech.lt
    +370 5 274 4715
  • Assoc Prof. Dr. Eglė Navickienė
    Chief Research Fellow
    egle.navickiene@vilniustech.lt
    +370 5 274 5208
  • Assoc Prof. Dr. Eglė Navickienė
    Associate professor
    egle.navickiene@vilniustech.lt
    +370 5 274 5208
  • Assoc Prof. Dr. Eglė Navickienė
    Senior Research Fellow
    egle.navickiene@vilniustech.lt
    +370 5 274 5208
  • Assoc Prof. Dr. Dainius Miškinis
    Partner Professor
    dainius.miskinis@vilniustech.lt
    +370 5 274 4708
  • Nijolė Čeikienė
    Lecturer
    nijole.ceikiene@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Arminas Stanionis
    Associate professor
    arminas.stanionis@vilniustech.lt
    +370 5 237 0629
  • Assoc Prof. Dr. Linas Juknevičius
    Dean
    linas.juknevicius@vilniustech.lt
    +370 5 274 4808
  • Assoc Prof. Dr. Linas Juknevičius
    Associate professor
    linas.juknevicius@vilniustech.lt
    +370 5 274 4808
  • Dr. Virginija Grybaitė
    Associate professor
    virginija.grybaite@vilniustech.lt
    +370 5 274 4883
  • Assoc Prof. Dr. Ana Usovaitė
    Associate professor
    ana.usovaite@vilniustech.lt
    +370 5 274 4848
  • Giedrius Čyras
    Lecturer
    giedrius.cyras@vilniustech.lt
    +370 5 274 4883
  • Dr. Algirdas Laukaitis
    Associate professor
    algirdas.laukaitis@vilniustech.lt
    +370 5 274 4829
  • Dr. Algirdas Laukaitis
    Research Fellow
    algirdas.laukaitis@vilniustech.lt
    +370 5 274 4829
  • Prof. Dr. Edgar Sokolovskij
    -
    edgar.sokolovskij@vilniustech.lt
    +370 5 274 4794
  • Prof. Dr. Edgar Sokolovskij
    Professor
    edgar.sokolovskij@vilniustech.lt
    +370 5 274 4794
  • Prof. Dr. Edgar Sokolovskij
    Chief Research Fellow
    edgar.sokolovskij@vilniustech.lt
    +370 5 274 4794
  • Assoc Prof. Dr. Dainius Jasaitis
    Vice Dean for Studies
    dainius.jasaitis@vilniustech.lt
    +370 5 274 4814
  • Assoc Prof. Dr. Dainius Jasaitis
    Professor
    dainius.jasaitis@vilniustech.lt
    +370 5 274 4814
  • Prof. Dr. Sonata Tolvaišienė
    Professor
    sonata.tolvaisiene@vilniustech.lt
    +370 5 274 4761
  • Prof. Dr. Sonata Tolvaišienė
    Head
    sonata.tolvaisiene@vilniustech.lt
    +370 5 274 4761
  • Assoc Prof. Dr. Oksana Survilė
    Vice Dean for Studies
    oksana.survile@vilniustech.lt
    +370 5 237 0654
  • Assoc Prof. Dr. Oksana Survilė
    Associate professor
    oksana.survile@vilniustech.lt
    +370 5 237 0654
  • Assoc Prof. Dr. Oksana Survilė
    Chief Manager
    oksana.survile@vilniustech.lt
    +370 5 237 0654
  • Assoc Prof. Dr. Jurijus Tretjakovas
    Associate professor
    jurijus.tretjakovas@vilniustech.lt
    +370 5 237 0631
  • Prof. Dr Habil. Leonas Ustinovičius
    Chief Research Fellow
    leonas.ustinovicius@vilniustech.lt
    +370 5 251 2537
  • Vilija Pečeliūnienė
    Administrator
    vilija.peceliuniene@vilniustech.lt
    +370 5 274 4790
  • Vismantas Navikas
    Lecturer
    vismantas.navikas@vilniustech.lt
    +370 5 274 4829
  • Prof. Dr. Viktor Gribniak
    Chief Research Fellow
    viktor.gribniak@vilniustech.lt
    +370 5 251 2464
  • Prof. Dr. Viktor Gribniak
    Professor
    viktor.gribniak@vilniustech.lt
    +370 5 274 4821
  • Irena Ramanauskaitė
    Senior Manager
    irena.ramanauskaite@vilniustech.lt
    +370 5 237 0657
  • Jevgenija Beliakova
    Chief Specialist
  • Assoc Prof. Dr. Raimondas Pomarnacki
    Professor
    raimondas.pomarnacki@vilniustech.lt
    +370 5 274 4766
  • Assoc Prof. Dr. Raimondas Pomarnacki
    Chief Research Fellow
    raimondas.pomarnacki@vilniustech.lt
    +370 5 274 4766
  • Jolanta Kozič
    Chief Manager
    jolanta.kozic@vilniustech.lt
    +370 5 251 2533
  • Prof. Dr. Raimondas Grubliauskas
    Director
    raimondas.grubliauskas@vilniustech.lt
    +370 5 251 2123
  • Prof. Dr. Raimondas Grubliauskas
    Chief Research Fellow
    raimondas.grubliauskas@vilniustech.lt
    +370 5 251 2123
  • Prof. Dr. Raimondas Grubliauskas
    Professor
    raimondas.grubliauskas@vilniustech.lt
    +370 5 251 2123
  • Rasa Kesminienė
    Painter
    rasa.kesminiene@vilniustech.lt
    +370 5 274 4939
  • Dalia Kamblevičienė
    Chief Manager
    dalia.kambleviciene@vilniustech.lt
    +370 5 251 2368
  • Dr. Eglė Strainienė
    Assistant
    egle.strainiene@vilniustech.lt
    +370 5 274 4839
  • Dr. Šarūnas Mikučionis
    Assistant
    sarunas.mikucionis@vilniustech.lt
    +370 5 274 4766
  • Dr. Rosita Birvydienė
    Assistant
    rosita.birvydiene@vilniustech.lt
    +370 5 273 0629
  • Povilas Žemaitis
    Chief Specialist
    povilas.zemaitis@vilniustech.lt
    +370 5 274 4984
  • Marija Senkevič
    Vice Director
    marija.senkevic@vilniustech.lt
    +370 5 274 4941
  • Prof. Dr. Diana Kalibatienė
    Professor
    diana.kalibatiene@vilniustech.lt
    +370 5 274 4860
  • Prof. Dr. Diana Kalibatienė
    Chief Research Fellow
    diana.kalibatiene@vilniustech.lt
    +370 5 274 4860
  • Raimondas Mažeika
    Head
    raimondas.mazeika@vilniustech.lt
    +370 5 274 4983
  • Viktorija Vitartienė
    Office Cleaner
    viktorija.vitartiene@vilniustech.lt
    +370 692 20 625
  • Assoc Prof. Dr. Kęstutis Lukošius
    Partner Associate Professor
    kestutis.lukosius@vilniustech.lt
    +370 5 274 5238
  • Prof. Audrius Ambrasas
    Professor
    audrius.ambrasas@vilniustech.lt
    +370 5 274 5208
  • Assoc Prof. Dr. Rūta Puzienė
    Lecturer
    ruta.puziene@vilniustech.lt
    +370 5 273 0629
  • Assoc Prof. Dr. Rūta Puzienė
    Junior Research Fellow
    ruta.puziene@vilniustech.lt
    +370 5 273 0629
  • Assoc Prof. Dr. Gintas Viselga
    Vice Dean for Studies
    gintas.viselga@vilniustech.lt
    +370 5 274 4743
  • Assoc Prof. Dr. Gintas Viselga
    Associate professor
    gintas.viselga@vilniustech.lt
    +370 5 274 4743
  • Neringa Samuolienė
    Lecturer
    neringa.samuoliene@vilniustech.lt
    +370 5 274 4838
  • Assoc Prof. Dr. Jolanta Stupakova
    Assistant
    jolanta.stupakova@vilniustech.lt
    +370 5 274 4837
  • Assoc Prof. Dr. Andrius Tamošiūnas
    Associate professor
    andrius.tamosiunas@vilniustech.lt
    +370 5 274 4875
  • Assoc Prof. Dr. Andrius Tamošiūnas
    Research Fellow
    andrius.tamosiunas@vilniustech.lt
    +370 5 274 4875
  • Dr. Vaidas Vadluga
    Assistant
    vaidas.vadluga@vilniustech.lt
    +370 5 274 4791
  • Assoc Prof. Dr. Inga Tumasonienė
    Vice Dean for International Relations, Alumni and Partnership
    inga.tumasoniene@vilniustech.lt
    +370 5 274 4845
  • Assoc Prof. Dr. Inga Tumasonienė
    Associate professor
    inga.tumasoniene@vilniustech.lt
    +370 5 274 4845
  • Assoc Prof. Dr. Rūta Simanavičienė
    Head
    ruta.simanaviciene@vilniustech.lt
    +370 5 274 4850
  • Assoc Prof. Dr. Rūta Simanavičienė
    Associate professor
    ruta.simanaviciene@vilniustech.lt
    +370 5 274 4850
  • Assoc Prof. Dr. Rūta Simanavičienė
    Research Fellow
    ruta.simanaviciene@vilniustech.lt
    +370 5 274 4850
  • Prof. Dr. Tomas Kačerauskas
    Chief Research Fellow
    tomas.kacerauskas@vilniustech.lt
    +370 5 274 4866
  • Prof. Dr. Tomas Kačerauskas
    Professor
    tomas.kacerauskas@vilniustech.lt
    +370 5 274 4866
  • Prof. Dr. Tomas Kačerauskas
    Head
    tomas.kacerauskas@vilniustech.lt
    +370 5 274 4866
  • Assoc Prof. Dr. Asta Daunaravičienė
    Assistant
    asta.daunaraviciene@vilniustech.lt
    +370 5 251 2179
  • Raminta Kuktaitė
    Head
    raminta.kuktaite@vilniustech.lt
    +370 5 237 0639
  • Prof. Dr. Artūras Serackis
    Chief Research Fellow
    arturas.serackis@vilniustech.lt
    +370 5 274 4765
  • Prof. Dr. Artūras Serackis
    Head
    arturas.serackis@vilniustech.lt
    +370 5 274 4765
  • Prof. Dr. Artūras Serackis
    Professor
    arturas.serackis@vilniustech.lt
    +370 5 274 4765
  • Prof. Dr. Artūras Serackis
    Research Fellow
    arturas.serackis@vilniustech.lt
    +370 5 274 4765
  • Rasa Juodagalvytė
    Lecturer
    rasa.juodagalvyte@vilniustech.lt
    +370 5 274 4829
  • Dr. Audronė Kvedarienė
    Assistant
    audrone.kvedariene@vilniustech.lt
    +370 5 274 4873
  • Silvija Gečytė
    Administrator
    silvija.gecyte@vilniustech.lt
    +370 5 274 4839
  • Assoc Prof. Dr. Inesa Alistratovaitė-Kurtinaitienė
    Head
    inesa.alistratovaite-kurtinaitiene@vilniustech.lt
    +370 5 274 5201
  • Assoc Prof. Dr. Inesa Alistratovaitė-Kurtinaitienė
    Associate professor
    inesa.alistratovaite-kurtinaitiene@vilniustech.lt
    +370 5 274 5201
  • Assoc Prof. Dr. Vaida Vasiliauskienė
    Associate professor
    vaida.vasiliauskiene@vilniustech.lt
    +370 5 251 2177
  • Aleksandr Vika
    Lecturer
    aleksandr.vika@vilniustech.lt
    +370 5 274 4752
  • Aleksandr Vika
    Junior Research Fellow
    aleksandr.vika@vilniustech.lt
    +370 5 274 4783
  • Prof. Dr. Dalius Matuzevičius
    Chief Research Fellow
    dalius.matuzevicius@vilniustech.lt
    +370 5 274 4766
  • Prof. Dr. Dalius Matuzevičius
    Professor
    dalius.matuzevicius@vilniustech.lt
    +370 5 274 4766
  • Prof. Dr. Nerija Žurauskienė
    Professor
    nerija.zurauskiene@vilniustech.lt
    +370 5 274 4762
  • Prof. Dr. Aušra Mažeikienė
    Chief Research Fellow
    ausra.mazeikiene@vilniustech.lt
    +370 5 274 4724
  • Prof. Dr. Aušra Mažeikienė
    Professor
    ausra.mazeikiene@vilniustech.lt
    +370 5 274 4724
  • Raimund Stupak
    Associate professor
    raimund.stupak@vilniustech.lt
    +370 5 274 5201
  • Rasa Prentkovskienė
    Head
    rasa.prentkovskiene@vilniustech.lt
    +370 5 274 4930
  • Nerijus Česnaitis
    Director
    nerijus.cesnaitis@vilniustech.lt
    +370 5 237 0652
  • Nerijus Česnaitis
    Lecturer
    nerijus.cesnaitis@vilniustech.lt
    +370 5 274 4821
  • Assoc Prof. Dr. Justas Trinkūnas
    Associate professor
    justas.trinkunas@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Justas Trinkūnas
    Research Fellow
    justas.trinkunas@vilniustech.lt
    +370 5 274 4829
  • Kęstutis Sipavičius
    Driver
    kestutis.sipavicius@vilniustech.lt
    +370 5 237 0682
  • Skirmantė Anuškevičienė
    Head
    skirmante.anuskeviciene@vilniustech.lt
    +370 5 274 4901
  • Marius Petniūnas
    Engineer
    marius.petniunas@vilniustech.lt
    +370 5 274 4707
  • Dr. Gediminas Braziulis
    Lecturer
  • Dr. Gediminas Braziulis
    Senior Specialist
  • Assoc Prof. Dr. Rasa Stankevičienė
    Associate professor
    rasa.stankeviciene@vilniustech.lt
    +370 5 274 4715
  • Prof. Dr Habil. Henrikas Sivilevičius
    Chief Research Fellow
    henrikas.sivilevicius@vilniustech.lt
    +370 5 251 2464
  • Prof. Dr. Šarūnas Paulikas
    Professor
    sarunas.paulikas@vilniustech.lt
    +370 5 274 4768
  • Prof. Dr. Šarūnas Paulikas
    Chief Research Fellow
    sarunas.paulikas@vilniustech.lt
    +370 5 274 4768
  • Karolis Mikėnas
    Head
    karolis.mikenas@vilniustech.lt
    +370 5 274 4760
  • Karolis Mikėnas
    Lecturer
    karolis.mikenas@vilniustech.lt
    +370 5 274 4768
  • Gediminas Navickas
    Director
    gediminas.navickas@vilniustech.lt
    +370 5 274 4775
  • Dr. Jovita Damauskaitė
    Head of Laboratory(ies)
    jovita.damauskaite@vilniustech.lt
    +370 5 251 2178
  • Dr. Jovita Damauskaitė
    Assistant
    jovita.damauskaite@vilniustech.lt
    +370 5 251 2178
  • Edgaras Timinskas
    Lecturer
    edgaras.timinskas@vilniustech.lt
    +370 5 274 4852
  • Assoc Prof. Dr. Laura Tupėnaitė
    Senior Research Fellow
    laura.tupenaite@vilniustech.lt
    +370 652 80 529
  • Assoc Prof. Dr. Laura Tupėnaitė
    Associate professor
    laura.tupenaite@vilniustech.lt
    +370 652 80 529
  • Prof. Dr. Voitech Stankevič
    Associate professor
    voitech.stankevic@vilniustech.lt
    +370 5 274 4762
  • Ramunė Baltrušaitienė
    Senior Librarian
    ramune.baltrusaitiene@vilniustech.lt
    +370 5 274 4900
  • Jelena Borisova
    Lecturer
    jelena.borisova@vilniustech.lt
    +370 5 274 4861
  • Dr. Jekaterina Lavrinec
    Partner Associate Professor
    jekaterina.lavrinec@vilniustech.lt
    +370 5 237 0694
  • Dr. Galina Ševčenko-Kozlovska
    Assistant
    galina.sevcenko-kozlovska@vilniustech.lt
    +370 5 274 4861
  • Assoc Prof. Dr. Gerda Jankevičiūtė
    Assistant
    gerda.jankeviciute@vilniustech.lt
    +370 5 274 4766
  • Assoc Prof. Saulius Pamerneckis
    Associate professor
    saulius.pamerneckis@vilniustech.lt
    +370 5 274 5208
  • Prof. Dr. Ilona Skačkauskienė
    Professor
    ilona.skackauskiene@vilniustech.lt
    +370 5 274 4875
  • Prof. Dr. Ilona Skačkauskienė
    Chief Research Fellow
    ilona.skackauskiene@vilniustech.lt
    +370 5 274 4875
  • Loreta Kačinskytė
    Senior Manager
    loreta.kacinskyte@vilniustech.lt
    +370 5 274 4727
  • Gintaras Šerkšnas
    -
    gintaras.serksnas@vilniustech.lt
    +370 5 251 2269
  • Prof. Dr. Artūras Kilikevičius
    Chief Research Fellow
    arturas.kilikevicius@vilniustech.lt
    +370 5 251 2373
  • Prof. Dr. Artūras Jukna
    Professor
    arturas.jukna@vilniustech.lt
    +370 5 251 2462
  • Rasa Kupčikienė
    Administrator
    rasa.kupcikiene@vilniustech.lt
    +370 5 274 4745
  • Assoc Prof. Meda Norbutaitė
    Associate professor
    meda.norbutaite@vilniustech.lt
    +370 5 237 0586
  • Assoc Prof. Dr. Rasuolė Vladarskienė
    Assistant
    rasuole.vladarskiene@vilniustech.lt
    +370 5 274 4871
  • Vykinta Ramanauskienė
    Chief Specialist
    vykinta.ramanauskiene@vilniustech.lt
    +370 5 274 4903
  • Danguolė Ambrasaitė
    Chief Specialist
    danguole.ambrasaite@vilniustech.lt
    +370 5 251 2518
  • Edita Dombrovskienė
    Administrator
    edita.dombrovskiene@vilniustech.lt
    +370 5 274 4849
  • Assoc Prof. Dr. Darius Miniotas
    Assistant
    darius.miniotas@vilniustech.lt
    +370 5 274 4766
  • Assoc Prof. Dr. Liutauras Nekrošius
    Associate professor
    liutauras.nekrosius@vilniustech.lt
    +370 682 57 414
  • Assoc Prof. Dr. Liutauras Nekrošius
    Senior Research Fellow
    liutauras.nekrosius@vilniustech.lt
    +370 682 57 414
  • Rimantas Milkintas
    Senior Manager
    rimantas.milkintas@vilniustech.lt
    +370 5 274 4775
  • Edvardas Paškevičius
    Worker
    edvardas.paskevicius@vilniustech.lt
    +370 5 274 4994
  • Assoc Prof. Dr. Darius Migilinskas
    Associate professor
    darius.migilinskas@vilniustech.lt
    +370 5 274 5232
  • Assoc Prof. Dr. Darius Kalibatas
    Lecturer
    darius.kalibatas@vilniustech.lt
    +370 5 251 2115
  • Assoc Prof. Dr. Darius Kalibatas
    Research Fellow
    darius.kalibatas@vilniustech.lt
    +370 5 251 2115
  • Dr. Jurgita Šakėnaitė
    Assistant
    jurgita.sakenaite@vilniustech.lt
    +370 5 237 0628
  • Dr. Grigorij Žilinskij
    Head
    grigorij.zilinskij@vilniustech.lt
    +370 5 274 5074
  • Dr. Grigorij Žilinskij
    Assistant
    grigorij.zilinskij@vilniustech.lt
    +370 5 274 5074
  • Edita Juodvalkienė
    Chief Specialist
    edita.juodvalkiene@vilniustech.lt
    +370 5 251 2511
  • Kristina Juodinytė-Kuznetsova
    Lecturer
    k.juodinyte-kuznetsova@vilniustech.lt
    +370 5 274 4865
  • Dr. Valerijus Zlosnikas
    Partner Professor
    valerijus.zlosnikas@vilniustech.lt
    +370 618 09 006
  • Leonardas Marozas
    Lecturer
    leonardas.marozas@vilniustech.lt
    +370 5 251 2173
  • Emilis Dovidauskas
    Watcher
    emilis.dovidauskas@vilniustech.lt
    +370 5 269 8827
  • Pranas Trainavičius
    Flight Coordinator
    pranas.trainavicius@vilniustech.lt
    +370 5 274 4823
  • Prof. Dr. Dmitrij Šešok
    Chief Research Fellow
    dmitrij.sesok@vilniustech.lt
    +370 5 274 4826
  • Prof. Dr. Dmitrij Šešok
    Professor
    dmitrij.sesok@vilniustech.lt
    +370 5 274 4826
  • Prof. Dr. Dmitrij Šešok
    Head
    dmitrij.sesok@vilniustech.lt
    +370 5 274 4826
  • Dr. Tomas Ulitinas
    Assistant
    tomas.ulitinas@vilniustech.lt
    +370 5 274 5216
  • Asta Katinaitė-Griežienė
    Head
    a.katinaite-grieziene@vilniustech.lt
    +370 5 251 2254
  • Assoc Prof. Dr. Irina Vinogradova-Zinkevič
    Professor
    irina.vinogradova-zinkevic@vilniustech.lt
    9832
  • Assoc Prof. Dr. Irina Vinogradova-Zinkevič
    Chief Research Fellow
    irina.vinogradova-zinkevic@vilniustech.lt
    9832
  • Dalia Janulionienė
    Chief Specialist
    dalia.janulioniene@vilniustech.lt
    +370 5 274 4968
  • Diana Buzar
    Archivist
    diana.barkovskaja@vilniustech.lt
    +370 5 251 2274
  • Prof. Dr. Rolandas Strazdas
    Professor
    rolandas.strazdas@vilniustech.lt
    +370 5 274 4733
  • Prof. Dr. Rolandas Strazdas
    Chief Research Fellow
    rolandas.strazdas@vilniustech.lt
    +370 5 274 4733
  • Elena Norkuvienė
    Specialist
    elena.norkuviene@vilniustech.lt
    +370 5 274 4520
  • Assoc Prof. Dr. Jurgis Zagorskas
    Associate professor
    jurgis.zagorskas@vilniustech.lt
    +370 688 14 666
  • Assoc Prof. Dr. Jurgis Zagorskas
    Research Fellow
    jurgis.zagorskas@vilniustech.lt
    +370 688 14 666
  • Gailė Kamilė Šaltenienė
    Lecturer
    gaile.kamile.salteniene@vilniustech.lt
    +370 5 274 4827
  • Assoc Prof. Dr. Raimundas Junevičius
    Assistant
    raimundas.junevicius@vilniustech.lt
    +370 5 237 0580
  • Assoc Prof. Dr. Raimundas Junevičius
    Junior Research Fellow
    raimundas.junevicius@vilniustech.lt
    +370 5 237 0580
  • Assoc Prof. Dr. Dalius Seliuta
    Associate professor
    dalius.seliuta@vilniustech.lt
    +370 5 274 4766
  • Assoc Prof. Dr. Milda Pečiulienė
    Head
    milda.peciuliene@vilniustech.lt
    +370 5 274 4833
  • Assoc Prof. Dr. Milda Pečiulienė
    Associate professor
    milda.peciuliene@vilniustech.lt
    +370 5 274 4833
  • Assoc Prof. Dr. Jūratė Šliogerienė
    Research Fellow
    jurate.sliogeriene@vilniustech.lt
    +370 5 251 2527
  • Inga Naudžiūnė
    Chief Specialist
    inga.naudziune@vilniustech.lt
    +370 5 237 0608
  • Valda Morkūnienė
    -
    valda.morkuniene@vilniustech.lt
    +370 5 251 2269
  • Dr. Rimvydas Stonys
    Chief Research Fellow
    rimvydas.stonys@vilniustech.lt
    +370 5 251 2326
  • Assoc Prof. Dr. Sigitas Vėjelis
    Chief Research Fellow
    sigitas.vejelis@vilniustech.lt
    +370 5 251 2343
  • Assoc Prof. Dr. Rolandas Drejeris
    Associate professor
    rolandas.drejeris@vilniustech.lt
    +370 5 274 4877
  • Assoc Prof. Dr. Viktorija Stasytytė
    Head
    viktorija.stasytyte@vilniustech.lt
    +370 5 274 4956
  • Assoc Prof. Dr. Viktorija Stasytytė
    Senior Research Fellow
    viktorija.stasytyte@vilniustech.lt
  • Dr. Jelena Mazaj
    Partner Professor
    jelena.mazaj@vilniustech.lt
    +370 5 274 4873
  • Assoc Prof. Dr. Laura Žalimienė
    Head
    laura.zalimiene@vilniustech.lt
    +370 5 251 2530
  • Assoc Prof. Dr. Laura Žalimienė
    Research Fellow
    laura.zalimiene@vilniustech.lt
    +370 5 251 2530
  • Dr. Jaroslav Rokicki
    Associate professor
    jaroslav.rokicki@vilniustech.lt
    +370 5 237 0567
  • Jolita Valentinavičienė
    Chief Specialist
    jolita.valentinaviciene@vilniustech.lt
    +370 5 251 2268
  • Assoc Prof. Dr. Viktoras Chadyšas
    Associate professor
    viktoras.chadysas@vilniustech.lt
    +370 5 274 4849
  • Assoc Prof. Dr. Viktoras Chadyšas
    Research Fellow
    viktoras.chadysas@vilniustech.lt
    +370 5 274 4849
  • Dr. Svetlana Danilenko
    Associate professor
    svetlana.danilenko@vilniustech.lt
    +370 5 274 4849
  • Dr. Svetlana Danilenko
    Research Fellow
    svetlana.danilenko@vilniustech.lt
    +370 5 274 4849
  • Prof. Dr. Violeta Motuzienė
    Chief Research Fellow
    violeta.motuziene@vilniustech.lt
    +370 5 274 4717
  • Prof. Dr. Violeta Motuzienė
    Professor
    violeta.motuziene@vilniustech.lt
    +370 5 274 4717
  • Prof. Dr. Violeta Motuzienė
    Head
    violeta.motuziene@vilniustech.lt
    +370 5 274 4717
  • Assoc Prof. Dr. Lukas Pavilanskas
    Partner Professor
    lukas.pavilanskas@vilniustech.lt
    +370 5 274 4768
  • Antanas Patapavičius
    Technician
    antanas.patapavicius@vilniustech.lt
    +370 5 274 4856
  • Assoc Prof. Dr. Kristina Garškaitė-Milvydienė
    Associate professor
    kristina.garskaite-milvydiene@vilniustech.lt
    +370 5 274 4861
  • Daiva Versekėnienė
    Chief Specialist
    daiva.versekeniene@vilniustech.lt
    +370 5 237 0575
  • Assoc Prof. Dr. Tomas Januševičius
    Chief Research Fellow
    tomas.janusevicius@vilniustech.lt
    +370 5 251 2132
  • Assoc Prof. Dr. Mantas Pranskevičius
    Senior Research Fellow
    mantas.pranskevicius@vilniustech.lt
    +370 5 274 4726
  • Assoc Prof. Dr. Mantas Pranskevičius
    Associate professor
    mantas.pranskevicius@vilniustech.lt
    +370 5 274 4726
  • Assoc Prof. Dr. Mantas Pranskevičius
    Research Fellow
    mantas.pranskevicius@vilniustech.lt
    +370 5 274 4726
  • Assoc Prof. Dr. Mantas Pranskevičius
    Engineer
    mantas.pranskevicius@vilniustech.lt
    +370 5 274 4726
  • Dr. Rytė Žiūrienė
    Assistant
    ryte.ziuriene@vilniustech.lt
    +370 5 251 2183
  • Dr. Rytė Žiūrienė
    Junior Research Fellow
    ryte.ziuriene@vilniustech.lt
    +370 5 251 2183
  • Daiva Višinskienė
    -
    daiva.visinskiene@vilniustech.lt
    +370 5 251 2269
  • Assoc Prof. Dr. Jonas Šaparauskas
    Chief Research Fellow
    jonas.saparauskas@vilniustech.lt
    +370 5 251 2115
  • Assoc Prof. Dr. Jonas Šaparauskas
    Associate professor
    jonas.saparauskas@vilniustech.lt
    +370 5 251 2115
  • Assoc Prof. Gintautas Blažiūnas
    Professor
    gintautas.blaziunas@vilniustech.lt
    +370 616 26 312
  • Gintaras Dmitrijev
    Lecturer
    gintaras.dmitrijev@vilniustech.lt
    +370 5 274 4825
  • Assoc Prof. Dr. Remigijus Šalna
    Dean
    remigijus.salna@vilniustech.lt
    +370 5 274 5240
  • Assoc Prof. Dr. Remigijus Šalna
    Associate professor
    remigijus.salna@vilniustech.lt
    +370 5 274 5240
  • Assoc Prof. Dr. Ingrida Leščauskienė
    Associate professor
    ingrida.lescauskiene@vilniustech.lt
    +370 5 251 2538
  • Assoc Prof. Dr. Ingrida Leščauskienė
    Senior Research Fellow
    ingrida.lescauskiene@vilniustech.lt
    +370 5 251 2538
  • Dalia Markevičiūtė
    Chief Specialist
    dalia.markeviciute@vilniustech.lt
    +370 5 237 0597
  • Assoc Prof. Dr. Jolita Bradulienė
    Associate professor
    jolita.braduliene@vilniustech.lt
    +370 5 274 4947
  • Assoc Prof. Dr. Jolita Bradulienė
    Research Fellow
    jolita.braduliene@vilniustech.lt
    +370 5 274 4947
  • Assoc Prof. Dr. Eimantas Garšva
    Partner Associate Professor
    eimantas.garsva@vilniustech.lt
    +370 5 274 4768
  • Assoc Prof. Dr. Domantas Bručas
    Associate professor
    domantas.brucas@vilniustech.lt
    +370 5 274 4821
  • Renata Cibulskienė
    Lecturer
    renata.cibulskiene@vilniustech.lt
    +370 5 274 4869
  • Assoc Prof. Dr. Andrius Litvinaitis
    Assistant
    andrius.litvinaitis@vilniustech.lt
    +370 5 274 4724
  • Giedrė Ingrida Laukaitytė-Malžinskienė
    Associate professor
    g.laukaityte-malzinskiene@vilniustech.lt
    +370 5 274 5201
  • Prof. Dr. Raimondas Jasevičius
    Chief Research Fellow
    raimondas.jasevicius@vilniustech.lt
    +370 5 251 2372
  • Assoc Prof. Dr. Ramunė Albrektienė-Plačakė
    Associate professor
    ramune.albrektiene-placake@vilniustech.lt
    +370 5 274 4839
  • Assoc Prof. Dr. Aurelija Burinskienė
    Chief Research Fellow
    aurelija.burinskiene@vilniustech.lt
    +370 5 274 4882
  • Assoc Prof. Dr. Aurelija Burinskienė
    Professor
    aurelija.burinskiene@vilniustech.lt
    +370 5 274 4882
  • Assoc Prof. Dr. Kristina Čižiūnienė
    Associate professor
    kristina.ciziuniene@vilniustech.lt
    +370 5 237 0632
  • Assoc Prof. Dr. Kristina Čižiūnienė
    Senior Research Fellow
    kristina.ciziuniene@vilniustech.lt
    +370 5 237 0632
  • Ingrida Girnienė
    Lecturer
    ingrida.girniene@vilniustech.lt
    +370 5 274 5238
  • Antonij Antipov
    Worker
    antonij.antipov@vilniustech.lt
    +370 5 274 5040
  • Assoc Prof. Dr. Darius Rudinskas
    -
    darius.rudinskas@vilniustech.lt
    +370 5 274 4820
  • Assoc Prof. Dr. Darius Rudinskas
    Head
    darius.rudinskas@vilniustech.lt
    +370 5 274 4820
  • Assoc Prof. Dr. Darius Rudinskas
    Associate professor
    darius.rudinskas@vilniustech.lt
    +370 5 274 4820
  • Kristina Pučkytė
    Chief Manager
    kristina.puckyte@vilniustech.lt
    +370 5 274 5244
  • Marina Vitkauskaitė-Duoblienė
    Senior Manager
    marina.vitkauskaite-duobliene@vilniustech.lt
    +370 5 274 4889
  • Gintautas Bancevičius
    Chief Specialist
    gintautas.bancevicius@vilniustech.lt
    +370 5 237 0597
  • Šarūnas Šukevičius
    Lecturer
    sarunas.sukevicius@vilniustech.lt
    +370 5 274 4788
  • Šarūnas Šukevičius
    Junior Research Fellow
    sarunas.sukevicius@vilniustech.lt
    +370 5 274 4788
  • Saulius Naimavičius
    Deputy Chief
    saulius.naimavicius@vilniustech.lt
    +370 5 274 4971
  • Renata Karbauskienė
    Lecturer
    renata.karbauskiene@vilniustech.lt
    +370 5 274 4825
  • Renata Karbauskienė
    Administrator
    renata.karbauskiene@vilniustech.lt
    +370 5 274 4825
  • Renata Karbauskienė
    Junior Research Fellow
    renata.karbauskiene@vilniustech.lt
    +370 5 274 4825
  • Assoc Prof. Dr. Eglė Marčiulaitienė
    Associate professor
    egle.marciulaitiene@vilniustech.lt
    +370 5 251 2502
  • Assoc Prof. Dr. Eglė Marčiulaitienė
    Research Fellow
    egle.marciulaitiene@vilniustech.lt
    +370 5 251 2502
  • Dr. Raminta Pranckutė
    Head
    raminta.pranckute@vilniustech.lt
    +370 5 251 2250
  • Dr. Vaida Buivydienė
    Lecturer
    vaida.buivydiene@vilniustech.lt
    +370 5 274 4870
  • Dr. Vaida Buivydienė
    Assistant
    vaida.buivydiene@vilniustech.lt
    +370 5 274 4870
  • Danguolė Skrebienė
    Head
    danguole.skrebiene@vilniustech.lt
    +370 5 274 4964
  • Jūratė Ryliškė
    Lecturer
    jurate.ryliske@vilniustech.lt
    +370 5 274 4708
  • Rimantas Pliuška
    Watcher
    rimantas.pliuska@vilniustech.lt
    9193
  • Mantas Zemleris
    Driver
    mantas.zemleris@vilniustech.lt
    +370 5 274 4726
  • Dana Kacilauskienė
    Office Cleaner
    dana.kacilauskiene@vilniustech.lt
    +370 5 286 5336
  • Andrius Januta
    Partner Associate Professor
    andrius.januta@vilniustech.lt
    +370 5 274 4829
  • Mantvydas Latvėnas
    Lecturer
    mantvydas.latvenas@vilniustech.lt
    +370 5 274 4821
  • Donatas Kacilauskas
    Housekeeper
    donatas.kacilauskas@vilniustech.lt
    +370 5 286 5336
  • Jurgita Vidūnaitė-Stankevičienė
    Chief Specialist
    jurgita.vidunaite-stankeviciene@vilniustech.lt
    +370 5 274 4901
  • Prof. Dr. Laima Okunevičiūtė Neverauskienė
    Professor
    laima.okuneviciute.neverauskiene@vilniustech.lt
    +370 5 274 4873
  • Prof. Dr. Laima Okunevičiūtė Neverauskienė
    Chief Research Fellow
    laima.okuneviciute.neverauskiene@vilniustech.lt
    +370 5 274 4873
  • Assoc Prof. Dr. Violeta Misevičiūtė
    Associate professor
    violeta.miseviciute@vilniustech.lt
    +370 5 274 4710
  • Assoc Prof. Dr. Violeta Misevičiūtė
    Research Fellow
    violeta.miseviciute@vilniustech.lt
    +370 5 274 4710
  • Jovilė Barevičiūtė
    Lecturer
    jovile.bareviciute@vilniustech.lt
    +370 5 274 4926
  • Dr. Vilma Nekrašaitė-Liegė
    Vice Dean for Studies
    vilma.nekrasaite-liege@vilniustech.lt
    +370 5 251 2542
  • Dr. Vilma Nekrašaitė-Liegė
    Assistant
    vilma.nekrasaite-liege@vilniustech.lt
    +370 5 251 2542
  • Renata Griškėnienė
    Head of Laboratory(ies)
    renata.griskeniene@vilniustech.lt
    +370 5 274 4927
  • Assoc Prof. Dr. Raimond Laptik
    Assistant
    raimond.laptik@vilniustech.lt
    +370 5 274 4766
  • Dr. Pavel Skorupa
    Assistant
    pavel.skorupa@vilniustech.lt
    +370 5 274 4865
  • Veslav Kuranovič
    Lecturer
    veslav.kuranovic@vilniustech.lt
    +370 5 237 0695
  • Laura Uturytė
    Lecturer
    laura.uturyte@vilniustech.lt
    +370 5 274 4883
  • Ana Ušpurienė
    Lecturer
    ana.uspuriene@vilniustech.lt
    +370 5 274 4848
  • Dr. Ignas Daugėla
    Director
    ignas.daugela@vilniustech.lt
    +370 694 53 522
  • Dr. Ignas Daugėla
    Vice Dean for Research and Project Development
    ignas.daugela@vilniustech.lt
    +370 694 53 522
  • Dr. Ignas Daugėla
    Assistant
    ignas.daugela@vilniustech.lt
    +370 694 53 522
  • Dr. Vidmantas Pumputis
    Assistant
    vidmantas.pumputis@vilniustech.lt
    +370 5 274 4791
  • Assoc Prof. Dr. Urtė Radvilaitė
    Senior Research Fellow
    urte.radvilaite@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Urtė Radvilaitė
    Associate professor
    urte.radvilaite@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Urtė Radvilaitė
    Research Fellow
    urte.radvilaite@vilniustech.lt
    +370 5 274 4829
  • Assoc Prof. Dr. Artūras Medeišis
    Dean
    arturas.medeisis@vilniustech.lt
    +370 5 274 5013
  • Assoc Prof. Dr. Artūras Medeišis
    Assistant
    arturas.medeisis@vilniustech.lt
    +370 5 274 5013
  • Assoc Prof. Dr. Audrius Dzikevičius
    Partner Professor
    audrius.dzikevicius@vilniustech.lt
    +370 616 46 431
  • Viktorija Jakučionytė
    Lecturer
    viktorija.jakucionyte@vilniustech.lt
    +370 5 274 4865
  • Viktorija Jakučionytė
    Junior Research Fellow
    viktorija.jakucionyte@vilniustech.lt
    +370 5 274 4865
  • Dr. Justinas Rastenis
    Head
    justinas.rastenis@vilniustech.lt
    +370 5 251 2333
  • Dr. Justinas Rastenis
    Associate professor
    justinas.rastenis@vilniustech.lt
    +370 5 251 2333
  • Assoc Prof. Dr. Ruslan Pacevič
    Senior Research Fellow
    ruslan.pacevic@vilniustech.lt
    +370 5 274 4913
  • Assoc Prof. Dr. Ruslan Pacevič
    Associate professor
    ruslan.pacevic@vilniustech.lt
    +370 5 274 4913
  • doc. dr. Ruslan Pacevič
    Research Fellow
    ruslan.pacevic@vilniustech.lt
    +370 5 274 4913
  • Danutė Zagrebnevienė
    Head
    danute.zagrebneviene@vilniustech.lt
    +370 5 274 4900
  • Dr. Tomas Ustinavičius
    Assistant
    tomas.ustinavicius@vilniustech.lt
    +370 5 274 4762
  • Julija Šarko Purkevič
    Chief Specialist
    julija.sarko@vilniustech.lt
    +370 5 237 0602
  • Donatas Šiniauskas
    Choreographer
    donatas.siniauskas@vilniustech.lt
    +370 5 274 4939
  • Grigorij Kuksov
    Laboratory Assistant
    grigorij.kuksov@vilniustech.lt
  • Mindaugas Mikulionis
    Chief Pilot Instructor
    mindaugas.mikulionis@vilniustech.lt
    +370 612 88 635
  • Kristina Audickaitė
    Administrator
    kristina.audickaite@vilniustech.lt
    +370 5 274 4875
  • Assoc Prof. Dr. Vilma Jasiūnienė
    Head
    vilma.jasiuniene@vilniustech.lt
    +370 5 274 4709
  • Assoc Prof. Dr. Vilma Jasiūnienė
    Professor
    vilma.jasiuniene@vilniustech.lt
    +370 5 274 4709
  • Assoc Prof. Dr. Vilma Jasiūnienė
    Senior Research Fellow
    vilma.jasiuniene@vilniustech.lt
    +370 5 274 4709
  • Daina Bumeikienė
    Administrator
    daina.bumeikiene@vilniustech.lt
    +370 5 274 4882
  • Dr. Rimantas Simniškis
    Partner Associate Professor
    rimantas.simniskis@vilniustech.lt
    +370 606 49 016
  • Auksuolė Beresnevičienė
    Senior Librarian
    auksuole.beresneviciene@vilniustech.lt
    +370 5 274 4901
  • Danuta Gajdamavičiūtė
    Watcher
    danuta.gajdamaviciute@vilniustech.lt
    +370 656 78 304
  • Kristina Nogteva
    Chief Specialist
    kristina.nogteva@vilniustech.lt
    +370 5 237 0608
  • Viktorija van Dalfsen
    Senior Specialist
    viktorija.van-dalfsen@vilniustech.lt
    +370 5 274 5010
  • Algirdas Michelkevičius
    Partner Associate Professor
    algirdas.michelkevicius@vilniustech.lt
    +370 5 274 4708
  • Dr. Aurelija Kasparavičiūtė
    Assistant
    aurelija.kasparaviciute@vilniustech.lt
    +370 5 251 2547
  • Assoc Prof. Dr. Jolita Norkūnienė
    Associate professor
    jolita.norkuniene@vilniustech.lt
    +370 5 274 4849
  • Assoc Prof. Dr. Jolita Norkūnienė
    Research Fellow
    jolita.norkuniene@vilniustech.lt
    +370 5 274 4849
  • Assoc Prof. Dr. Agnė Šimelytė
    Associate professor
    agne.simelyte@vilniustech.lt
    +370 5 274 4874
  • Ričardas Varno
    Partner Associate Professor
    ricardas.varno@vilniustech.lt
    +370 5 274 4869
  • Assoc Prof. Dr. Tomas Luneckas
    Associate professor
    tomas.luneckas@vilniustech.lt
    +370 5 274 4762
  • Assoc Prof. Dr. Renata Činčikaitė
    Associate professor
    renata.cincikaite@vilniustech.lt
    +370 5 274 4873
  • Dr. Jurgita Malaiškienė
    Chief Research Fellow
    jurgita.malaiskiene@vilniustech.lt
    +370 5 251 2329
  • Assoc Prof. Dr. Tomas Skuturna
    Assistant
    tomas.skuturna@vilniustech.lt
    +370 5 274 5225
  • Assoc Prof. Dr. Giedrė Streckienė
    Chief Research Fellow
    giedre.streckiene@vilniustech.lt
    +370 5 251 2308
  • Assoc Prof. Dr. Giedrė Streckienė
    Professor
    giedre.streckiene@vilniustech.lt
    +370 5 251 2308
  • Assoc Prof. Dr. Giedrė Streckienė
    Senior Research Fellow
    giedre.streckiene@vilniustech.lt
    +370 5 251 2308
  • Dr. Jelena Kabulova
    Vice Director
    jelena.kabulova@vilniustech.lt
    +370 5 251 2316
  • Dr. Jelena Kabulova
    Junior Research Fellow
    jelena.kabulova@vilniustech.lt
    +370 5 251 2316
  • Assoc Prof. Dr. Elena Servienė
    Professor
    elena.serviene@vilniustech.lt
    +370 5 272 9363
  • Assoc Prof. Dr. Rimantas Stonkus
    Associate professor
    rimantas.stonkus@vilniustech.lt
    +370 5 274 4752
  • Ivona Baranovska-Vasiljeva
    Lecturer
    ivona.baranovska-vasiljeva@vilniustech.lt
    +370 5 274 4865
  • Assoc Prof. Dr. Andrej Bugajev
    Senior Research Fellow
    andrej.bugajev@vilniustech.lt
    +370 5 274 4480
  • Assoc Prof. Dr. Andrej Bugajev
    Associate professor
    andrej.bugajev@vilniustech.lt
    +370 5 274 4480
  • Assoc Prof. Dr. Andrej Bugajev
    Research Fellow
    andrej.bugajev@vilniustech.lt
    +370 5 274 4480
  • Assoc Prof. Dr. Jonas Matijošius
    Chief Research Fellow
    jonas.matijosius@vilniustech.lt
    +370 5 274 4733
  • Assoc Prof. Dr. Jonas Matijošius
    Professor
    jonas.matijosius@vilniustech.lt
    +370 5 274 4733
  • Dr. Romanas Tumasonis
    Assistant
    romanas.tumasonis@vilniustech.lt
    +370 5 274 4829
  • Aleksandr Lapušinskij
    Head
    aleksandr.lapusinskij@vilniustech.lt
    +370 672 41 641
  • Aleksandr Lapušinskij
    Lecturer
    aleksandr.lapusinskij@vilniustech.lt
    +370 5 274 4821
  • Dr. Ivan Suzdalev
    Assistant
    ivan.suzdalev@vilniustech.lt
    +370 5 274 4821
  • Ernestas Čepulionis
    Head of Laboratory(ies)
    ernestas.cepulionis@vilniustech.lt
    +370 5 251 2382
  • Ernestas Čepulionis
    Lecturer
    ernestas.cepulionis@vilniustech.lt
    +370 5 251 2382
  • Assoc Prof. Dr. Jolanta Tamošaitienė
    Chief Research Fellow
    jolanta.tamosaitiene@vilniustech.lt
    +370 5 274 5231
  • Lina Račaitė
    Lecturer
    lina.racaite@vilniustech.lt
    +370 5 274 4821
  • Lina Račaitė
    Administrator
    lina.racaite@vilniustech.lt
    +370 5 274 4821
  • Virginijus Urbonas
    Pilot - Instructor
    virginijus.urbonas@vilniustech.lt
    +370 5 274 4811
  • Assoc Prof. Dr. Skirmantė Mozūriūnaitė
    Head
    skirmante.mozuriunaite@vilniustech.lt
    +370 5 274 4952
  • Assoc Prof. Dr. Skirmantė Mozūriūnaitė
    Associate professor
    skirmante.mozuriunaite@vilniustech.lt
    +370 5 274 4952
  • Prof. Dr. Vaidotas Barzdėnas
    Chief Research Fellow
    vaidotas.barzdenas@vilniustech.lt
    +370 5 274 4767
  • Prof. Dr. Vaidotas Barzdėnas
    Professor
    vaidotas.barzdenas@vilniustech.lt
    +370 5 274 4767
  • Prof. Dr. Vaidotas Barzdėnas
    Head
    vaidotas.barzdenas@vilniustech.lt
    +370 5 274 4767
  • Andrius Keizikas
    Lecturer
    andrius.keizikas@vilniustech.lt
    +370 5 274 5662
  • Prof. Dr. Darius Plonis
    Chief Research Fellow
    darius.plonis@vilniustech.lt
    +370 5 274 4766
  • Prof. Dr. Darius Plonis
    Professor
    darius.plonis@vilniustech.lt
    +370 5 274 4766
  • Romanas Narkevičius
    Head
    romanas.narkevicius@vilniustech.lt
    +370 5 274 4988
  • Dr. Ovidijus Šernas
    Director
    ovidijus.sernas@vilniustech.lt
    +370 5 251 2354
  • Dr. Ovidijus Šernas
    Chief Research Fellow
    ovidijus.sernas@vilniustech.lt
    +370 5 251 2464
  • Dr. Ovidijus Šernas
    Assistant
    ovidijus.sernas@vilniustech.lt
    +370 5 274 4708
  • Dr. Akvilė Šimėnienė
    Assistant
    akvile.simeniene@vilniustech.lt
    +370 5 274 4865
  • Dovilė Jodenytė
    Director
    dovile.jodenyte@vilniustech.lt
    +370 5 274 4895
  • Dovilė Jodenytė
    Lecturer
    dovile.jodenyte@vilniustech.lt
    +370 5 274 4895
  • Dovilė Jodenytė
    Junior Research Fellow
    dovile.jodenyte@vilniustech.lt
    +370 5 274 4895
  • Dr. Algis Pakalnis
    Project Leader
    algis.pakalnis@vilniustech.lt
    +370 698 48 970
  • Dr. Aja Tumavičė
    Chief Specialist
    aja.tumavice@vilniustech.lt
    +370 5 251 2352
  • Dr. Aja Tumavičė
    Assistant
    aja.tumavice@vilniustech.lt
    +370 5 251 2352
  • Dr. Aja Tumavičė
    Research Fellow
    aja.tumavice@vilniustech.lt
    +370 5 251 2352
  • Benas Ubartas
    Junior Research Fellow
    benas.ubartas@vilniustech.lt
    +370 5 251 2464
  • Dainoras Balnionis
    Head
    dainoras.balnionis@vilniustech.lt
    +370 5 237 0698
  • Assoc Prof. Dr. Justinas Gargasas
    Dean
    justinas.gargasas@vilniustech.lt
    +370 5 274 5015
  • Assoc Prof. Dr. Justinas Gargasas
    Senior Research Fellow
    justinas.gargasas@vilniustech.lt
    +370 5 274 5015
  • Assoc Prof. Dr. Justinas Gargasas
    Associate professor
    justinas.gargasas@vilniustech.lt
    +370 5 274 5015
  • Dr. Juozas Kamarauskas
    Assistant
    juozas.kamarauskas@vilniustech.lt
    +370 5 274 4848
  • Dr. Juozas Kamarauskas
    Junior Research Fellow
    juozas.kamarauskas@vilniustech.lt
    +370 5 274 4848
  • Eglė Truskauskienė
    Assistant
    egle.truskauskiene@vilniustech.lt
    +370 5 274 5201
  • Prof. Dr. Vaida Asakavičiūtė
    Dean
    vaida.asakaviciute@vilniustech.lt
    +370 5 251 2321
  • Prof. Dr. Vaida Asakavičiūtė
    Chief Research Fellow
    vaida.asakaviciute@vilniustech.lt
    +370 5 251 2321
  • Prof. Dr. Vaida Asakavičiūtė
    Professor
    vaida.asakaviciute@vilniustech.lt
    +370 5 251 2321
  • Dr. Kristina Kilikevičienė
    Chief Research Fellow
    kristina.kilikeviciene@vilniustech.lt
    +370 5 251 2373
  • Dr. Lina Pečiūrė
    Director
    lina.peciure@vilniustech.lt
    +370 5 251 2474
  • Rima Šinkūnaitė
    Senior Librarian
    rima.sinkunaite@vilniustech.lt
    +370 5 274 4903
  • Assoc Prof. Dr. Jelena Škamat
    Chief Research Fellow
    jelena.skamat@vilniustech.lt
    +370 5 251 2339
  • Dr. Rūta Mikučionienė
    Vice Director
    ruta.mikucioniene@vilniustech.lt
    +370 5 251 2297
  • Dr. Rūta Mikučionienė
    Associate professor
    ruta.mikucioniene@vilniustech.lt
    +370 5 251 2297
  • Dr. Rūta Mikučionienė
    Research Fellow
    ruta.mikucioniene@vilniustech.lt
    +370 5 251 2297
  • Dr. Jurijus Zaranka
    Assistant
    jurijus.zaranka@vilniustech.lt
    +370 5 274 4792
  • Assoc Prof. Dr. Viktor Skrickij
    Chief Research Fellow
    viktor.skrickij@vilniustech.lt
    +370 688 64 981
  • Prof. Dr. Alfredas Rimkus
    Professor
    alfredas.rimkus@vilniustech.lt
    +370 5 274 4791
  • Prof. Dr. Alfredas Rimkus
    Chief Research Fellow
    alfredas.rimkus@vilniustech.lt
    +370 5 274 4791
  • Viktorija Podgaiskytė
    Lecturer
    viktorija.podgaiskyte@vilniustech.lt
    +370 5 274 4877
  • Dr. Zyta Kuzborska
    Assistant
    zyta.kuzborska@vilniustech.lt
    +370 5 274 4748
  • Svetlana Daškevič
    Partner Associate Professor
    svetlana.daskevic@vilniustech.lt
    +370 5 274 4708
  • Andrius Gedvila
    Lecturer
    andrius.gedvila@vilniustech.lt
    +370 5 274 4733
  • Assoc Prof. Dr. Romualdas Juknelevičius
    Associate professor
    romualdas.juknelevicius@vilniustech.lt
    +370 5 274 4733
  • Assoc Prof. Dr. Romualdas Juknelevičius
    Research Fellow
    romualdas.juknelevicius@vilniustech.lt
    +370 5 274 4790
  • Albert Burbo
    Watcher
    albert.burbo@vilniustech.lt
    +370 5 274 4811
  • Dr. Vladimir Avdejenkov
    Assistant
    vladimir.avdejenkov@vilniustech.lt
    +370 5 274 4829
  • Valerij Markin
    Watcher
    v.markin@vilniustech.lt
    +370 5 274 4811
  • Eugenijus Solovjovas
    Technician
    eugenijus.solovjovas@vilniustech.lt
    +370 5 237 0647
  • Česlava Dorochina
    Senior Specialist
    ceslava.dorochina@vilniustech.lt
    +370 5 237 0602
  • Audrius Marozas
    Watcher
    audrius.marozas@vilniustech.lt
    +370 692 20 625
  • Vita Vasionienė
    Technician
    vita.vasioniene@vilniustech.lt
    +370 5 274 9649
  • Stanislava Verkauskaitė
    Archivist
    stanislava.verkauskaite@vilniustech.lt
    +370 5 274 5032
  • Virginija Pukienė
    Technician
    virginija.pukiene@vilniustech.lt
    +370 5 275 1232
  • Zina Paplauskienė
    Technician
    zina.paplauskiene@vilniustech.lt
  • Dr. Jolanta Pranckevičienė
    Chief Research Fellow
    jolanta.pranckeviciene@vilniustech.lt
    +370 5 251 2341
  • Dr. Jolanta Pranckevičienė
    Senior Research Fellow
    jolanta.pranckeviciene@vilniustech.lt
    +370 5 251 2341
  • Dr. Valentin Antonovič
    Chief Research Fellow
    valentin.antonovic@vilniustech.lt
    +370 5 251 2335
  • Dr. Ina Pundienė
    Chief Research Fellow
    ina.pundiene@vilniustech.lt
    +370 5 251 2328
  • Dr. Modestas Kligys
    Senior Research Fellow
    modestas.kligys@vilniustech.lt
    +370 5 251 2327
  • Dr. Saulius Vaitkus
    Chief Research Fellow
    saulius.vaitkus@vilniustech.lt
  • Assoc Prof. Dr. Audrius Grainys
    Professor
    audrius.grainys@vilniustech.lt
    +370 5 251 2317
  • Assoc Prof. Dr. Vidas Žuraulis
    Chief Research Fellow
    vidas.zuraulis@vilniustech.lt
    +370 5 274 4791
  • Assoc Prof. Dr. Vidas Žuraulis
    Professor
    vidas.zuraulis@vilniustech.lt
    +370 5 274 4791
  • Assoc Prof. Dr. Olga Regina Šostak
    Associate professor
    olga-regina.sostak@vilniustech.lt
    +370 5 274 4852
  • Dr. Eduardas Ivonis
    Assistant
    eduardas.ivonis@vilniustech.lt
    +370 5 274 4849
  • Dr. Dovilė Vasiliauskienė
    Associate professor
    dovile.vasiliauskiene@vilniustech.lt
    +370 5 251 2456
  • Dr. Dovilė Vasiliauskienė
    Research Fellow
    dovile.vasiliauskiene@vilniustech.lt
    +370 5 251 2456
  • Dr. Liudas Tumonis
    Associate professor
    liudas.tumonis@vilniustech.lt
    +370 5 274 4821
  • Dr. Giedrius Balčiūnas
    Chief Research Fellow
    giedrius.balciunas@vilniustech.lt
    +370 5 251 2345
  • Dr. Giedrius Balčiūnas
    Senior Research Fellow
    giedrius.balciunas@vilniustech.lt
    +370 5 251 2345
  • Assoc Prof. Giedrė Ratkutė – Skačkauskienė
    Associate professor
    giedre.ratkute-skackauskiene@vilniustech.lt
    +370 5 274 5201
  • Vytautas Virginijus Gerdvilis
    Watchman
    vytautas-virginijus.gerdvilis@vilniustech.lt
    +370 5 251 2334
  • Leokadija Antanavičienė
    Finisher
    leokadija.antanaviciene@vilniustech.lt
    +370 5 274 4983
  • Eglė Vaikėnė
    Chief Specialist
    egle.vaikene@vilniustech.lt
    +370 5 251 2400
  • Dr. Viačeslavas Nelkinas
    Assistant
    viaceslavas.nelkinas@vilniustech.lt
    +370 5 274 4825
  • Assoc Prof. Dr. Rūta Banelienė
    Associate professor
    ruta.baneliene@vilniustech.lt
    +370 5 274 4733
  • Assoc Prof. Dr. Rūta Banelienė
    Senior Research Fellow
    ruta.baneliene@vilniustech.lt
    +370 5 237 0694
  • Assoc Prof. Dr. Marijan Jurgo
    Associate professor
    marijan.jurgo@vilniustech.lt
    +370 5 274 4768
  • Assoc Prof. Dr. Marijan Jurgo
    Research Fellow
    marijan.jurgo@vilniustech.lt
    +370 5 274 4768
  • Giedrė Sandovič
    Lecturer
    giedre.sandovic@vilniustech.lt
    +370 5 251 2468
  • Svetlana Pranckevičienė
    Office Cleaner
    svetlana.pranckeviciene@vilniustech.lt
    +370 5 237 0639
  • Dr. Aleksandr Sokolov
    Chief Research Fellow
    aleksandr.sokolov@vilniustech.lt
    9311
  • Dr. Aleksandr Sokolov
    Senior Research Fellow
    aleksandr.sokolov@vilniustech.lt
    9311
  • Jonas Rutkauskas
    Administrator
    jonas.rutkauskas@vilniustech.lt
    +370 692 20 625
  • Assoc Prof. Dr. Juozas Bielskus
    Senior Research Fellow
    juozas.bielskus@vilniustech.lt
  • Assoc Prof. Dr. Juozas Bielskus
    Associate professor
    juozas.bielskus@vilniustech.lt
    +370 5 274 4718
  • Assoc Prof. Dr. Juozas Bielskus
    Research Fellow
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    +370 5 274 5099
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    +370 5 274 4766
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    +370 5 274 4766
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    vytautas.bleizgys@vilniustech.lt
    +370 5 274 4768
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    +370 5 274 5201
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