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Programmable automation systems

Language of instruction

lithuanian

Qualification degree and (or) qualification to be awarded

Bachelor of Engineering Sciences

Place of delivery

Kaunas, K. Donelaičio g. 73, LT-44249
Nemuno g. 33, 37164, Panevėžys

Institution that has carried out assessment

Studijų kokybės vertinimo centras

Institution that has performed accreditation, accreditation term

Studijų kokybės vertinimo centras, 8/31/2024

Data provided or updated (date)

9/20/2019

Order on accreditation

SV6-25
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Summary of the Profile

General Description:
Objective(s) of a study programme:
Programme aim is to prepare the bachelors in automation system programming who are able to independently to design, programme and operate the electromechanical automation systems, to implement the latest technologies of digital production and know the electronics of control devices and computer aided automated control systems.
Learning outcomes:
A1. Knows and holistically understands the basics of science and mathematics, concepts necessary for understanding the fundamentals of electronical engineering study field;
A2. Has theoretical and practical basic knowledge of electrical and electronics engineering (Electrical Circuit Analysis; Electrical Materials and Measurements; Applied Electronics; Electric Machines; Electric Drives Ergonomics)
A3. Knows and understands automation, pneumatic and hydraulic systems and their processes, is able to choose the relevant control methods;
A4. Is able to design the automation systems and programmed control in real-time;
B1. Is able to carry out the engineering analysis of technological object, to select and apply the methods of automation system modelling, design and digitalization;
B2. Is able to solve various engineering tasks by choosing the right software, computer equipment, numerical methods, computer communications and wireless communication systems;
B3. Is able to apply the acquired theoretical and practical knowledge of automated control, modelling and management of various processes and systems to optimize production processes;
C1. Is able to design and program automation systems, draw up design drawings;
C2. Is able to design and program computer / device / robot communication networks, knows wired and wireless standards of industrial communications;
D1. Is able to analyse different information sources in the fields of automation and programming and to systemize the received information;
D2. Is able to plan and perform relevant research and experiments, process and evaluate the data and formulate the argument-based conclusions;
D3. Has the skills to work with engineering equipment: programmable logic controllers, digital software controls, various computer communications and wireless systems;
E1. Knows engineering constructions of equipment, operation principles, functions and is able to choose production technologies, processes and their elements;
E2. Understands the importance of work and fire safety;
E3. Is able to apply the theoretical and applied knowledge in solving the complex engineering tasks of automated production while organizing this production process, planning the consistency and interaction of its chains and evaluating the circumstances for cybernetic security, commercial, ethical and environmental protection;
E4. Is able to apply the interdisciplinary knowledge and understanding of engineering study field by designing, programming and launching the engineering solutions for production automation;
F1. Is able to independently develop the obtained professional knowledge and competencies in automation and programming, be able to work in a team, demonstrate empathy and emotional intelligence;
F2. Is able to prepare in written form and orally present the projects on automated production, to give arguments on decisions and apply office software packages to perform calculations, edit text, layout and visualize;
F3. Is able to communicate in written and oral in Lithuanian and at least in one foreign language;
F4. Understands the impact of engineering decisions on society and the environment, adhere to the norms of professional ethics and engineering, understands responsibility for the carried out engineering activities;
F5. Is able to evaluate the economic effectiveness of automation solutions and projects, demonstrates the skills of time planning and organizing the activities;
F6. Understands the importance of individual lifelong learning, improves professional skills and develops multi-faceted personality.
Activities of teaching and learning:
The material of all study modules is mastered during the students’ classroom and independent work. Classroom work includes lectures, laboratory work and assignments. Various teaching and learning methods that promote student participation are applied during classroom work: discussion, group work, simulation models, application of special software packages, design (project preparation and visualization), problem solving, case analysis, problem-based and project learning, reflection of activities. The students’ independent work is the mastering of theoretical material, preparation for lectures, laboratory work and assignments, intermediate tests for the tasks and examinations of the semester, preparation of homework and projects. Lectures of visiting lecturers (practitioners), study trips to production and business enterprises, consulting seminars are organized during studies. The study program is completed with a bachelor's final project.
Methods of assessment of learning achievements:
The student's knowledge, abilities and skills acquired during the course of the module are assessed and recorded in the databases twice: when paying for a semester's independent job (positive or negative assessment) and during the exam session. A ten-point Scale and Cumulative Scoring Scheme are applied. During the semester, the cumulative student score consists of assessments for individual and / or group projects, interim exam, control or laboratory work, analysis and presentation of the literature source / scientific article, case study, report, practice-based assignments, etc.
Final exam (written or oral) makes at least 30 percent of final score.
Students receive oral and / or written feedback from their teacher on their intermediate exams, presentations, home assignments, individual tasks. During the work in the classroom, peer-review comments about peer-group teamwork skills, oral presentations, projects, and so on are used.
Framework:
Study subjects (modules), practical training:
Volume of credits for general university subjects in credits – 12 (BUS-1 Philosophy and Sustainable Development Alternatives; BUS-2 Foreign Language Alternatives (Level C1)). Study subject area credits in credits – 141 (Programming Introduction for Engineers; Electrical Materials and Measurements; Computer Drawing; Software for Engineering Calculations; Computer Modelling; Electrical Circuit Analysis; Computational Mechanics and Computer Engineering Techniques, Safety at Work, Mathematics 1–3; Physics 1–2; Introduction to Specialty; Electric Machines; Automatic Control Theory; Process and System Modelling; Electric Drives; Applied Electronics; Devices for Automation systems; Logic Programming of Control Systems; Computer Controlled Systems; Computer Communication and Wireless Communication Systems; Product Development Project; Engineering Economics). Volume of subjects in Study field in credits – 24 (Programming of Digital Devices; Robot Control Systems and Programming; Artificial Neural Networks; Digital Control Systems). Volume of optional subjects in credits – 6. Professional practice (Professional practice 1–3), amounting to 42 credits. Volume of the Final Project in credits – 15 (Bachelor's Final Project). A total of 36 subjects are studied.
Specialisations:

Optional courses:
Personal Module Set (study cycle I): For 6 semesters (in full-time form) and 8 semesters (in part-time form), students can choose an optional module of 6 credits.
Distinctive features of a study programme:
Prolonged professional practice (6–8 semesters), amounting to 42 credits.
During the studies, a 12-credit interdisciplinary product development project is carried out, which is based on the innovation logic, which focuses on the student's work in an interdisciplinary team, the development of innovations and the development of entrepreneurial competencies. This is a product / service development project that integrates competency-based learning from idea to product creation.
Access to professional activity or further study:
Access to professional activity:
The graduate can work as an automation project manager, a production automation system engineer, automation device and system programmer, etc.
Access to further study:
Graduates will be able to continue their studies in postgraduate study programs (Master studies) in Lithuania and abroad.