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Engineer, Energy and Environmental Engineering, Full-Time Studies, Fall, 2025: IENS25

Code: IENS25

Degree:
Bachelor of Engineering

Degree title:
(Graduate) Engineer, Energy and Environmental Technology

Credits:
240 ects

Duration:
4 years (240 cr)

Start semester:
Autumn 2025

Descriptions

CURRICULUM
Bachelor of Engineering (UAS), Energy and Environmental Engineering, full-time studies

The graduating engineer has in-depth expertise in energy and environmental engineering. As an engineer, you promote social sustainability, circular economy and low-carbon solutions in various industries both domestically and internationally. Strong techno-economic expertise is the foundation for designing and implementing solutions for renewable energy, energy and material efficiency, and circular economy. As an environmental technology and management expert, you promote the sustainability of organisations, products and services.

The special features of energy and environmental technology are versatility, working life orientation and internationality. During your studies, you can direct your competence towards the energy or environmental engineering competence profile. You cooperate with working life partners and other programme stakeholders in customer-oriented design projects. You can supplement and deepen your skills in a study module organised by five European partner universities (INVEST Alliance).

Degree to be completed

Degree title Bachelor of Engineering (UAS)
Scope of the degree 240 cr / 4 yrs

Competence description

As a graduating engineer, you can design energy and environmental engineering solutions that consider techno-economic profitability and sustainability. During your studies, you will gain a strong foundation for work in renewable energy, environmental engineering, circular economy, and emission management.

As an engineer in energy and environmental engineering, you will develop companies' operating methods to be more sustainable, design renewable energy and resource efficiency solutions, and measure and analyse the state of the environment. You can work as an environmental expert in companies and participate in designing and implementing products, services and production processes.

During your studies, you will gain skills to work in design, research, product development, and official tasks in the energy and environmental sectors and as an independent entrepreneur. International studies also prepare you for an international career. Your employers include, for example, industrial companies, environmental and energy service companies, design and consulting firms, circular economy companies, energy and water utilities, environmental and technical services in the public sector, and environmental administration.

The societal need for expertise in circular economy, resource efficiency and renewable energy will enhance your employment. The demand for energy and environmental technology expertise is growing nationally and internationally. Special expertise is also needed in industries where products with high added value are produced from local renewable raw materials.

Competence building and content of education

The Degree Programme in Energy and Environmental Engineering consists of work-oriented core competence and complementary competence studies. The scope of studies in the core competence of the degree programme is 210 ECTS credits, and the scope of complementary competence studies is 30 ECTS credits. Core competence studies include 30 ECTS credits of practical training and 15 ECTS credits of a thesis.

At the beginning of your studies, you will build a foundation for engineering skills and acquire the mathematical and scientific skills needed in problem-solving. During your studies, you will familiarise yourself with energy and environmental technology's processes and operating environment and gain the skills to participate in various working life assignments. On this foundation, the core competence of the energy and environmental engineering degree is built, which deepens further as the studies progress. You will also strengthen your learning and professional language and communication skills at the beginning of your studies.

You will further deepen the core competence of the degree in the specialisations of energy and environmental engineering. In the third year of studies, you choose orientation study modules (15+15 ECTS) to familiarise yourself with energy solutions and renewable energy in real estate or environmental informatics and management. In the specialisation studies, you will collaborate in a multidisciplinary manner (e.g., with building maintenance technology) and take advantage of the opportunities offered by research and development activities. Joint research and development studies support your thesis skills.

The provision of complementary studies takes place during the fourth year of studies. The complementary offering of the degree programme includes modules in renewable energy processing and storage, as well as environmental and civil engineering. As an international joint implementation, Karelia organises the Sustainable Communities in Energy Transition module, where you can study the energy transition and the sustainable development of local communities in an international student group.

You can include a maximum of 15 ECTS credits of sports academy coaching intended for competitive and elite athletes or student union and tutor activities in your complementary competence studies. If the above-mentioned complementary competence studies do not correspond to your professional goals, you can discuss other options with your teacher tutor or study counsellor.

Work-oriented learning

Energy and environmental engineering education is implemented in cooperation with the region's energy companies, circular economy operators, SMEs, and communities. In the study modules, projects are carried out, for example, assignments in energy solutions, water protection and restoration, environmental informatics and management, step-by-step, in-depth practical training (three 10 ECTS periods), and a thesis on working life cooperation.

Karelia's research, development and innovation activities enable you to participate in regional and international development activities. Research and development activities are linked to studies in course learning assignments, practical training, fourth-year supplementary INVEST Living lab studies, and thesis assignments.

Pedagogical choices

Energy and environmental engineering studies utilise, among other things, collaborative re-search-based and developmental learning that promotes problem-solving, supports the student's independent information acquisition and application skills, and supports the development of working life skills during the studies.

Students will take an active role in their studies, including taking initiative and developing strong cooperation skills and responsibility. Teachers guide students' development in energy and environmental engineering practices and professional tasks. The students will utilise Karelia Universi-ty of Applied Sciences' learning environments, methods, cooperation networks and partnerships in their studies. All education activities support the well-being and cooperation of students and study groups.

Flexible implementation of studies

Education in energy and environmental engineering is based on contact teaching, supported by related working life and project cooperation, and hybrid and blended methods that increase flexibility. There is also flexibility in the complementary studies, which can also include studies in other fields. If you want to speed up your studies, you can take advantage of the joint online study offerings of universities of applied sciences, for example. Previously acquired competence and on-the-job learning are accepted in accordance with Karelia's RPL process and the work accreditation process. An individual study plan (ISP) supports the flexibility and fluency of studies.

Internationalisation

As a student of energy and environmental engineering, you have the opportunity to internationalise through studies, project work, international student exchange, and practical training. You can also strengthen your international skills by tutoring international students. You can complete part of your studies at international partner universities or do internships abroad. The energy and environmental engineering degree program has an extensive network of international partner universities, enabling studies in exchange destinations in Europe and other continents.

Karelia organises the teaching of the INVEST module in cooperation with international partners, and exchange teachers and students participate in the courses. Through the INVEST cooperation, students can also apply for studies offered by other European higher education institutions.

The international cooperation networks in energy and environmental engineering, the North Karelia Biosphere Reserve, which is part of UNESCO's MaB programme, and Eseia (European Sustainable Energy Innovation Alliance) offer students opportunities for international cooperation, networking, and intensive training.

Competence assessment

With the help of the assessment and the guiding feedback received, you monitor competence development and set new goals. The competence assessment is based on the learning out-comes of the degree, which are included in the study modules and courses. Karelia has common assessment criteria, based on which the implementation and criteria for assessment are defined for each course. Karelia's common evaluation criteria are used in the thesis assessment. Assessment methods also include students' self-assessments, peer reviews, and feedback received through the study group. Working life feedback is utilised in the assessment when the studies are essentially related to a working life assignment or working in a company.

Career opportunities and career guidance

Expertise in energy and environmental engineering offers you career opportunities in the industry, engineering offices, environmental administration, and as an entrepreneur. The studies include professional growth and career guidance, which support you in specifying your competence and finding employment. Regular and deepening internships and a thesis commissioned as a working life assignment support the development of working life skills and career planning.

Changes in working life and personal career development require continuous learning after graduation. A significant part of learning occurs in working life but can be enhanced through training. You can supplement your competence with Open University of Applied Sciences studies or education leading to a master’s degree. Completing a master’s degree opens up opportunities for managerial positions, demanding expert and development tasks or becoming a teacher, for example.

Show study timings by semester, study year or period

Code Name Credits (cr) 2025-2026 2026-2027 2027-2028 2028-2029 Autumn
2025
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IENS25-1
Understanding the Operating Environment

(Choose all)

58
IENS25-11
Basics in Energy Engineering

(Choose all)

20
IE10004 Operating in Environment of Energy Sector 4 4 4 2 2
IE10005 Electricity and Wave Physics 5 5 5 2.5 2.5
IE10006 Mechanics and Thermodynamics 6 6 6 3 3
IE10003 Differential and Integral Calculus 5 5 5 2.5 2.5
IENS25-12
Knowledge of Nature Ecosystems

(Choose all)

20
IE10007 Basics of Mapping and GIS systems 4 4 4 2 2
IE10008 Water Management 5 5 5 2.5 2.5
IE10009 Chemistry 6 6 6 3 3
IE10002 Algebra and Geometry 5 5 5 2.5 2.5
IENS25-13
Communication in Engineering Sciences

(Choose all)

18
IE10015 Career Planning and Development 1 2 2 1.3 0.7 0.7 0.7 0.7
IE10010 Communications 5 5 2.5 2.5 1.3 1.3 1.3 1.3
IE10011 Information and Communication Technology 3 3 3 3
IE10012 CAD Drawing 4 4 4 1.3 1.3 1.3
IE10013 Environmental English 2 2 2 1 1
IE10014 Swedish Language Environment 2 2 2 1 1
IENS25-2
Applying the Processes

(Choose all)

63
IENS25-21
Environmental and Energy Politics

(Choose all)

15
IE10016 Environmental Law 4 4 4 2 2
IE10017 Environmental and Energy Politics 4 4 4 2 2
IE10018 Climate-Wise Activities 3 3 3 1.5 1.5
IE10019 Swedish Language for Environmental Working Life 3 3 3 1.5 1.5
IE10020 Career Planning and Development 2 1 1 1 0.5 0.5
IENS25-22
Resource Efficiency

(Choose all)

20
IE10021 Separation Processes of Emission Control 5 5 5 2.5 2.5
IE10022 Circular Economy 5 5 5 2.5 2.5
IE10023 Energy Efficiency and Thermodynamics 5 5 5 2.5 2.5
IE10024 Cost Accounting and Profitability Calculation 5 5 5 2.5 2.5
IENS25-23
Biogas and Combustion Engineering

(Choose all)

13
IE10025 Combustion Technologies 5 5 5 2.5 2.5
IE10026 Biogas Production and Methane Economy 5 5 5 2.5 2.5
IE10027 HVAC- and Workshop Projects 3 3 3 1.5 1.5
IENS25-24
Water Ecosystems and Microbiology

(Choose all)

15
IE10028 Applied Microbiology 5 5 5 2.5 2.5
IE10029 Management of Aquatic Ecosystems 5 5 5 2.5 2.5
IE10030 Environmental Health and Safety 5 5 5 2.5 2.5
IENS25-3
Professional skills

(Choose ects: 43)

43
IENS25-31
Specialist Option Studies: Energy Technology

(Choose all)

30
IENS25-311
Property Heating and Heat Transfer

(Choose all)

15
IE10034 Heat Distribution and Transfer Engineering 6 6 6 3 3
IE10035 Heat Pumps and Cooling Solutions 5 5 5 2.5 2.5
IE10036 Electricity and Automation Engineering 4 4 4 2 2
IENS25-312
Renewable Energy Production

(Choose all)

15
IE10040 Solar Energy 4 4 4 2 2
IE10041 Wind Power Technology and Design Solutions 5 5 5 2.5 2.5
IE10042 Biomass and Solid Fuels 4 4 4 2 2
IE10043 Bioenergy Production Practicals 2 2 2 1 1
IENS25-32
Specialist Option Studies: Environmental Technology

(Choose all)

30
IENS25-321
Environmental Informatics

(Choose all)

15
IE10031 Environmental Measurement Technology 5 5 5 2.5 2.5
IE10032 Simulation of Transboundary Emissions 5 5 5 2.5 2.5
IE10033 Analysing and Visualising Measurement Data 5 5 5 2.5 2.5
IENS25-322
Corporate Environmental Management and Communication

(Choose all)

15
IE10037 Corporate Environmental Management 5 5 5 2.5 2.5
IE10038 Life Cycle Analyses 5 5 5 2.5 2.5
IE10039 Environmental Responsibility and Communications 5 5 5 2.5 2.5
IENS25-33
Research and Development Methods

(Choose all)

13
IE10044 Statistical Methods 5 5 5 2.5 2.5
MM10041 Research and Development Methods 4 4 2 2 1 1 1 1
IE10046 Environmental English for Working Life 3 3 3 1.5 1.5
IE10047 Career Planning and Development 3 1 1 0.5 0.5 0.3 0.3 0.3 0.3
IENS25-4
Expert in Energy and Environmental Engineering

(Choose all)

46
IENS25-41
Towards Working Life

(Choose all)

1 1 1 0.5 0.5
IE10057 Career Planning and Development 4 1 1 1 0.5 0.5
IENS25-42
Practical Training

(Choose all)

30 30 30 10 10 10
IE10054 Practical Training 10 10 10 5 5
IE10055 Practical Training for Managerial Positions 10 10 10 5 5
IE10056 Practical Training in the Field of Engineering 10 10 10 5 5
IENS25-43
Thesis

(Choose all)

15
KY10001 Thesis Planning 5 2.5 2.5 2.5 2.5 1.3 1.3 1.3 1.3
KY10002 Thesis Implementation 5 5 2.5 2.5 1.3 1.3 1.3 1.3
KY10003 Thesis Finalising 5 5 2.5 2.5 1.3 1.3 1.3 1.3
IENS25-5
Complementary Studies

(Choose ects: 30)

30
IENS25-51
Profiling Supplementary Studies

(Choose all)

75
IENS25-511
Environmental and Community Engineering

(Choose all)

15
IE10048 Remediation of Contaminated Soil 5 5 5 2.5 2.5
IE10049 Wastewater Treatment Technologies 5 5 5 2.5 2.5
IE10050 Restoration Techniques of Aquatic Ecosystems 5 5 5 2.5 2.5
IENS25-512
Renewable Energy Processing and Storaging

(Choose all)

15
IE10051 Renewable Energy in Transportation 5 5 5 2.5 2.5
IE10052 Hydrogen Economy and Energy Storages 5 5 5 2.5 2.5
IE10053 CHP and Power Plant Technology 5 5 5 2.5 2.5
IENS25-513
Sustainable Communities in Energy Transition

(Choose all)

45
IE10058 Energy Policy and Advocacy 5 5 5 2.5 2.5
IE10059 Life Cycle Analyses of Energy Systems 5 5 5 2.5 2.5
IE10060 Business Models for Community Energy 5 5 5 2.5 2.5
IE10061 Applied Research for Energy Transition 5 5 5 2.5 2.5
IE10062 Language and Cultural Awareness of the Host Country 2 2 2 1 1
IE10063 Facilitating Community Energy Transition 8 8 8 4 4
IE10064 INVEST Living Lab Project 15 15 15 7.5 7.5
IENS25-52
Other Complementary Studies

(Choose all)

0
Total 240 68 73 85.5 88.5 31.8 36.2 30 43 37.5 48 68.5 20 1.3 16.8 13.8 18.5 17.8 0 0 15 15 21.5 21.5 0 0 18.8 18.8 24.1 24.1 0 0 34.4 34.4 10.1 10.1 0

Due to the timing of optional and elective courses, credit accumulation per semester / academic year may vary.

Shared competences of UAS Bachelor's degrees 2022

In Finnish universities of applied sciences, the competences of degrees have been defined as programme-specific competences and shared competences. Competences refer to extensive competence modules, which are combinations of individual knowledge, skills and attitudes. Programme-specific competences form the basis of a student's professional expertise. Shared competences are common competence areas for different programmes and degrees, and they create the foundation for operating in a workplace, cooperation and the development of expertise.

1 Learning to Learn

The graduating student recognises the strengths and development areas of their competence and learning methods, and they utilise the opportunities communities and digitalisation provide in their learning.

- Assesses and develops their competence and learning methods in different learning environments.
- Is able to acquire, critically assess and appropriately apply the national and
international knowledge base and practices of their field.
- Also takes responsibility for group learning and sharing what has been
learned.

Electricity and Wave Physics
Mechanics and Thermodynamics
Differential and Integral Calculus
Basics of Mapping and GIS systems
Water Management
Chemistry
Career Planning and Development 1
Communications
Information and Communication Technology
CAD Drawing
Environmental English
Swedish Language Environment
Swedish Language for Environmental Working Life
Career Planning and Development 2
Separation Processes of Emission Control
Energy Efficiency and Thermodynamics
Biogas Production and Methane Economy
HVAC- and Workshop Projects
Applied Microbiology
Management of Aquatic Ecosystems
Heat Distribution and Transfer Engineering
Heat Pumps and Cooling Solutions
Electricity and Automation Engineering
Bioenergy Production Practicals
Corporate Environmental Management
Environmental Responsibility and Communications
Research and Development Methods
Environmental English for Working Life
Career Planning and Development 3
Career Planning and Development 4
Thesis Planning
Thesis Implementation
Thesis Finalising
Remediation of Contaminated Soil
Renewable Energy in Transportation
CHP and Power Plant Technology
Applied Research for Energy Transition
Language and Cultural Awareness of the Host Country
Facilitating Community Energy Transition
INVEST Living Lab Project
2 Operating in a Workplace

The graduating student has versatile working life skills and is able to operate in work communities of their field.

- Is able to work constructively in a work community and promotes their own
and their work community’s well-being.
- Is able to act professionally in communication and interaction situations at a workplace.
- Utilises the opportunities offered by technology and digitalisation in their work.
- Understands the complexity of changing working life and their own resilience in changing working life situations.

Water Management
Career Planning and Development 1
Communications
Information and Communication Technology
CAD Drawing
Environmental English
Swedish Language Environment
Swedish Language for Environmental Working Life
Career Planning and Development 2
Separation Processes of Emission Control
Cost Accounting and Profitability Calculation
HVAC- and Workshop Projects
Applied Microbiology
Management of Aquatic Ecosystems
Bioenergy Production Practicals
Analysing and Visualising Measurement Data
Corporate Environmental Management
Environmental Responsibility and Communications
Research and Development Methods
Environmental English for Working Life
Career Planning and Development 3
Career Planning and Development 4
Practical Training
Practical Training for Managerial Positions
Practical Training in the Field of Engineering
Thesis Planning
Thesis Implementation
Thesis Finalising
Restoration Techniques of Aquatic Ecosystems
Life Cycle Analyses of Energy Systems
Business Models for Community Energy
Applied Research for Energy Transition
Facilitating Community Energy Transition
INVEST Living Lab Project
3 Ethics

The graduating student adheres to the ethical principles and values of their field of profession, taking the principles of equality and non-discrimination into account.

- Is able to take responsibility for their own actions and their consequences and reflects on them in accordance with the ethical principles and values of their field.
- Takes others into account and promotes equality and non-discrimination.
- Take into account the realisation of diversity and accessibility in their actions.
- Understands the principles of responsible conduct of research and adheres to them.
- Is able to influence society based on ethical values.

Water Management
Career Planning and Development 1
Environmental Law
Separation Processes of Emission Control
Energy Efficiency and Thermodynamics
Biogas Production and Methane Economy
HVAC- and Workshop Projects
Applied Microbiology
Management of Aquatic Ecosystems
Environmental Health and Safety
Environmental Responsibility and Communications
Research and Development Methods
Practical Training
Practical Training for Managerial Positions
Practical Training in the Field of Engineering
Thesis Planning
Thesis Implementation
Thesis Finalising
Restoration Techniques of Aquatic Ecosystems
Renewable Energy in Transportation
Energy Policy and Advocacy
Business Models for Community Energy
Facilitating Community Energy Transition
INVEST Living Lab Project
4 Sustainable Development

The graduating student is familiar with the principles of sustainable development, promotes their implementation and acts responsibly as a professional and a member of society.

- Is able to use information related to their field in finding, implementing and establishing sustainable solutions and operating models.
- Understands sustainability challenges, their interdependencies and the various aspects of issues and problems.

Operating in Environment of Energy Sector
Electricity and Wave Physics
Mechanics and Thermodynamics
Water Management
Environmental and Energy Politics
Climate-Wise Activities
Swedish Language for Environmental Working Life
Separation Processes of Emission Control
Circular Economy
Energy Efficiency and Thermodynamics
Biogas Production and Methane Economy
Applied Microbiology
Management of Aquatic Ecosystems
Environmental Health and Safety
Heat Distribution and Transfer Engineering
Heat Pumps and Cooling Solutions
Simulation of Transboundary Emissions
Corporate Environmental Management
Life Cycle Analyses
Environmental Responsibility and Communications
Practical Training
Practical Training for Managerial Positions
Practical Training in the Field of Engineering
Thesis Planning
Thesis Implementation
Thesis Finalising
Restoration Techniques of Aquatic Ecosystems
Renewable Energy in Transportation
CHP and Power Plant Technology
Energy Policy and Advocacy
Life Cycle Analyses of Energy Systems
Business Models for Community Energy
Applied Research for Energy Transition
Facilitating Community Energy Transition
INVEST Living Lab Project
5 Internationality and Multiculturalism

The graduating student is able to operate in multicultural and international operating environments and networks.

- Is familiar with the impacts of their cultural background on their activities and is able to develop operating methods that take multiculturalism into account in their work community.
- Is able to monitor and utilise the international development of their field in their work.
- Is able to communicate internationally in their work tasks.

Environmental English
Swedish Language Environment
Swedish Language for Environmental Working Life
Environmental English for Working Life
Energy Policy and Advocacy
Life Cycle Analyses of Energy Systems
Business Models for Community Energy
Applied Research for Energy Transition
Language and Cultural Awareness of the Host Country
Facilitating Community Energy Transition
INVEST Living Lab Project
6 Proactive Development

The graduating student is able to develop solutions that anticipate the future of their own field, applying existing knowledge and research and development methods.

− Solves problem situations creatively and reforms operating methods together with others.
− Is able to work in projects in cooperation with actors of different fields.
− Is able to apply existing knowledge in the field in development and utilises research and development methods.
− Is able to seek customer-oriented, sustainable and economically viable solutions, anticipating the future of their field.

Operating in Environment of Energy Sector
Electricity and Wave Physics
Mechanics and Thermodynamics
Differential and Integral Calculus
Water Management
CAD Drawing
Climate-Wise Activities
Separation Processes of Emission Control
Energy Efficiency and Thermodynamics
Biogas Production and Methane Economy
HVAC- and Workshop Projects
Management of Aquatic Ecosystems
Heat Distribution and Transfer Engineering
Heat Pumps and Cooling Solutions
Electricity and Automation Engineering
Simulation of Transboundary Emissions
Analysing and Visualising Measurement Data
Corporate Environmental Management
Life Cycle Analyses
Research and Development Methods
Practical Training in the Field of Engineering
Thesis Planning
Thesis Implementation
Thesis Finalising
Restoration Techniques of Aquatic Ecosystems
Renewable Energy in Transportation
Hydrogen Economy and Energy Storages
CHP and Power Plant Technology
Applied Research for Energy Transition
Facilitating Community Energy Transition
INVEST Living Lab Project
Not grouped
Algebra and Geometry
Combustion Technologies
Solar Energy
Wind Power Technology and Design Solutions
Biomass and Solid Fuels
Environmental Measurement Technology
Statistical Methods
Wastewater Treatment Technologies

1 Technology and design expertise

The graduating student knows the entirety of energy and environmental engineering, taking into account techno-economic profitability and sustainability aspects.
- understand the principles of technology design and dimensioning.
- is able to assess the suitability of technologies for the application and search for new, more sustainable and cost-effective solutions in a customer-oriented manner.
- is able to apply design guidelines and prepare techno-economic assessments.
- is able to promote the introduction of new technologies in cooperation with various stakeholders.

Operating in Environment of Energy Sector
Electricity and Wave Physics
Mechanics and Thermodynamics
Differential and Integral Calculus
Water Management
CAD Drawing
Separation Processes of Emission Control
Circular Economy
Energy Efficiency and Thermodynamics
Cost Accounting and Profitability Calculation
Combustion Technologies
Biogas Production and Methane Economy
HVAC- and Workshop Projects
Applied Microbiology
Management of Aquatic Ecosystems
Solar Energy
Wind Power Technology and Design Solutions
Biomass and Solid Fuels
Bioenergy Production Practicals
Environmental Measurement Technology
Simulation of Transboundary Emissions
Analysing and Visualising Measurement Data
Remediation of Contaminated Soil
Wastewater Treatment Technologies
Restoration Techniques of Aquatic Ecosystems
Renewable Energy in Transportation
Hydrogen Economy and Energy Storages
CHP and Power Plant Technology
Applied Research for Energy Transition
Facilitating Community Energy Transition
2 Renewable energy expertise

The graduating student knows the theoretical foundations of energy solutions and techno-economic planning. The student is able to promote the production and use of renewable energy.
- knows the significance and usability of renewable energies as part of energy production and climate change management.
- knows the environmental impacts of energy production.
- knows the region's renewable energy resources and understands the operating conditions for decentralised and centralised energy solutions.
- masters production technologies and processes based on renewable forms of energy.
- understands the theory of combustion, solid fuel and gasification, and combustion technologies.
- knows the design, dimensioning and implementation of various energy production solutions.
- knows renewable energy storage solutions and their development needs.
- knows the emerging renewable energy technology solutions and is able to promote their implementation in different operating environments

Operating in Environment of Energy Sector
Electricity and Wave Physics
Mechanics and Thermodynamics
CAD Drawing
Energy Efficiency and Thermodynamics
Combustion Technologies
Biogas Production and Methane Economy
HVAC- and Workshop Projects
Solar Energy
Wind Power Technology and Design Solutions
Biomass and Solid Fuels
Bioenergy Production Practicals
Renewable Energy in Transportation
Hydrogen Economy and Energy Storages
CHP and Power Plant Technology
Energy Policy and Advocacy
Life Cycle Analyses of Energy Systems
Business Models for Community Energy
Applied Research for Energy Transition
Facilitating Community Energy Transition
3 Circular economy expertise

The graduating student knows the principles of circular economy and the technologies and business models that promote them.
- understands the necessary changes in the operating environment and the underlying policy framework for the transition from a linear economic model to a circular economy model.
- knows the concepts of material and energy efficiency and knows the technologies and business models applicable to them.
- will be able to apply the key principles of circular economy in the design of technical systems with the aim of minimizing the environmental impact of operations.
- Understand the value addition of products, by-products, and materials and the importance of increasing the value in industrial production.

Separation Processes of Emission Control
Circular Economy
Energy Efficiency and Thermodynamics
Biogas Production and Methane Economy
HVAC- and Workshop Projects
Life Cycle Analyses
Remediation of Contaminated Soil
Wastewater Treatment Technologies
Renewable Energy in Transportation
Business Models for Community Energy
Facilitating Community Energy Transition
4 Competence in environmental informatics and management

The graduating student is able to promote corporate social and environmental responsibility by utilising environmental management and life cycle assessment methods.
- knows the principles and methods of environmental management of the company.
- is able to examine the environmental aspects of the company's operations and assess the environmental impacts of operations and draw up development proposals.
- will be able to utilise different methods for collecting environmental information and to analyse and visualise data for different purposes.
- is able to assess the environmental impacts of products and services during their life cycle.

Basics of Mapping and GIS systems
Water Management
Environmental Law
Environmental and Energy Politics
Climate-Wise Activities
Separation Processes of Emission Control
Management of Aquatic Ecosystems
Environmental Health and Safety
Environmental Measurement Technology
Simulation of Transboundary Emissions
Analysing and Visualising Measurement Data
Corporate Environmental Management
Life Cycle Analyses
Environmental Responsibility and Communications
Environmental English for Working Life
Restoration Techniques of Aquatic Ecosystems
Life Cycle Analyses of Energy Systems
5 Climate change and carbon neutrality

The graduating student understands climate change as part of the global sustainability challenge and is able to promote carbon-neutral solutions.
- is able to examine the means used to mitigate climate change from a multidisciplinary perspective.
- knows the principles and goals of sustainable development and is able to seek answers to sustainability challenges.
- is able to calculate the carbon footprint of an organization and product and is able to design solutions to reduce the carbon footprint.
- is able to utilise systems thinking to promote carbon neutrality and anticipate future needs.

Operating in Environment of Energy Sector
Climate-Wise Activities
Energy Efficiency and Thermodynamics
Biogas Production and Methane Economy
HVAC- and Workshop Projects
Life Cycle Analyses
Renewable Energy in Transportation
CHP and Power Plant Technology
Energy Policy and Advocacy
Life Cycle Analyses of Energy Systems
Facilitating Community Energy Transition
6 Competence in mathematics and natural sciences

The graduating student knows the methods of mathematics and natural sciences and is able to apply them in expert tasks.
- masters the mathematical methods and problem solving required in energy and environmental engineering
- is able to solve technical problems based on the laws of physics and chemistry.
- knows the most important biorefining processes and combustion chemistry.
- masters the most common ICT tool programs
- is able to use spatial data and surveying tools and knows the necessary terminology.

Electricity and Wave Physics
Mechanics and Thermodynamics
Differential and Integral Calculus
Basics of Mapping and GIS systems
Water Management
Chemistry
Algebra and Geometry
Information and Communication Technology
Separation Processes of Emission Control
Circular Economy
Energy Efficiency and Thermodynamics
Cost Accounting and Profitability Calculation
Combustion Technologies
Biogas Production and Methane Economy
HVAC- and Workshop Projects
Applied Microbiology
Management of Aquatic Ecosystems
Environmental Health and Safety
Heat Distribution and Transfer Engineering
Heat Pumps and Cooling Solutions
Electricity and Automation Engineering
Solar Energy
Wind Power Technology and Design Solutions
Biomass and Solid Fuels
Bioenergy Production Practicals
Environmental Measurement Technology
Simulation of Transboundary Emissions
Analysing and Visualising Measurement Data
Statistical Methods
Research and Development Methods
Remediation of Contaminated Soil
Wastewater Treatment Technologies
Restoration Techniques of Aquatic Ecosystems
Renewable Energy in Transportation
Hydrogen Economy and Energy Storages
CHP and Power Plant Technology
Life Cycle Analyses of Energy Systems
Applied Research for Energy Transition
Not grouped
Career Planning and Development 1
Communications
Environmental English
Swedish Language Environment
Swedish Language for Environmental Working Life
Career Planning and Development 2
Career Planning and Development 3
Career Planning and Development 4
Practical Training
Practical Training for Managerial Positions
Practical Training in the Field of Engineering
Thesis Planning
Thesis Implementation
Thesis Finalising
Language and Cultural Awareness of the Host Country
INVEST Living Lab Project

Code Name Credits (cr)
IENS25-1
Understanding the Operating Environment

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58
IENS25-11
Basics in Energy Engineering

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20
IE10004 Operating in Environment of Energy Sector 4
IE10005 Electricity and Wave Physics 5
IE10006 Mechanics and Thermodynamics 6
IE10003 Differential and Integral Calculus 5
IENS25-12
Knowledge of Nature Ecosystems

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20
IE10007 Basics of Mapping and GIS systems 4
IE10008 Water Management 5
IE10009 Chemistry 6
IE10002 Algebra and Geometry 5
IENS25-13
Communication in Engineering Sciences

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18
IE10015 Career Planning and Development 1 2
IE10010 Communications 5
IE10011 Information and Communication Technology 3
IE10012 CAD Drawing 4
IE10013 Environmental English 2
IE10014 Swedish Language Environment 2
IENS25-2
Applying the Processes

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63
IENS25-21
Environmental and Energy Politics

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15
IE10016 Environmental Law 4
IE10017 Environmental and Energy Politics 4
IE10018 Climate-Wise Activities 3
IE10019 Swedish Language for Environmental Working Life 3
IE10020 Career Planning and Development 2 1
IENS25-22
Resource Efficiency

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20
IE10021 Separation Processes of Emission Control 5
IE10022 Circular Economy 5
IE10023 Energy Efficiency and Thermodynamics 5
IE10024 Cost Accounting and Profitability Calculation 5
IENS25-23
Biogas and Combustion Engineering

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13
IE10025 Combustion Technologies 5
IE10026 Biogas Production and Methane Economy 5
IE10027 HVAC- and Workshop Projects 3
IENS25-24
Water Ecosystems and Microbiology

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15
IE10028 Applied Microbiology 5
IE10029 Management of Aquatic Ecosystems 5
IE10030 Environmental Health and Safety 5
IENS25-3
Professional skills

(Choose ects: 43)

43
IENS25-31
Specialist Option Studies: Energy Technology

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30
IENS25-311
Property Heating and Heat Transfer

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15
IE10034 Heat Distribution and Transfer Engineering 6
IE10035 Heat Pumps and Cooling Solutions 5
IE10036 Electricity and Automation Engineering 4
IENS25-312
Renewable Energy Production

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15
IE10040 Solar Energy 4
IE10041 Wind Power Technology and Design Solutions 5
IE10042 Biomass and Solid Fuels 4
IE10043 Bioenergy Production Practicals 2
IENS25-32
Specialist Option Studies: Environmental Technology

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30
IENS25-321
Environmental Informatics

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15
IE10031 Environmental Measurement Technology 5
IE10032 Simulation of Transboundary Emissions 5
IE10033 Analysing and Visualising Measurement Data 5
IENS25-322
Corporate Environmental Management and Communication

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15
IE10037 Corporate Environmental Management 5
IE10038 Life Cycle Analyses 5
IE10039 Environmental Responsibility and Communications 5
IENS25-33
Research and Development Methods

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13
IE10044 Statistical Methods 5
MM10041 Research and Development Methods 4
IE10046 Environmental English for Working Life 3
IE10047 Career Planning and Development 3 1
IENS25-4
Expert in Energy and Environmental Engineering

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46
IENS25-41
Towards Working Life

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1
IE10057 Career Planning and Development 4 1
IENS25-42
Practical Training

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30
IE10054 Practical Training 10
IE10055 Practical Training for Managerial Positions 10
IE10056 Practical Training in the Field of Engineering 10
IENS25-43
Thesis

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15
KY10001 Thesis Planning 5
KY10002 Thesis Implementation 5
KY10003 Thesis Finalising 5
IENS25-5
Complementary Studies

(Choose ects: 30)

30
IENS25-51
Profiling Supplementary Studies

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75
IENS25-511
Environmental and Community Engineering

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15
IE10048 Remediation of Contaminated Soil 5
IE10049 Wastewater Treatment Technologies 5
IE10050 Restoration Techniques of Aquatic Ecosystems 5
IENS25-512
Renewable Energy Processing and Storaging

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15
IE10051 Renewable Energy in Transportation 5
IE10052 Hydrogen Economy and Energy Storages 5
IE10053 CHP and Power Plant Technology 5
IENS25-513
Sustainable Communities in Energy Transition

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45
IE10058 Energy Policy and Advocacy 5
IE10059 Life Cycle Analyses of Energy Systems 5
IE10060 Business Models for Community Energy 5
IE10061 Applied Research for Energy Transition 5
IE10062 Language and Cultural Awareness of the Host Country 2
IE10063 Facilitating Community Energy Transition 8
IE10064 INVEST Living Lab Project 15
IENS25-52
Other Complementary Studies

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0