Instructional goals
The Z-Lab on Energy Transition is designed to equip students with the knowledge and skills necessary to address the pressing global issue of energy poverty through the development of integrated, innovative, and digital solutions. These solutions aim to generate tangible benefits not only in the short term but, more importantly, in the medium and long term. In an era where policymakers are under increasing pressure to implement sustainable, green, and clean energy systems, while ensuring energy is accessible, affordable, and inclusive, this lab offers a unique platform to explore these challenges in depth. The course examines sustainable energy systems from a global perspective, critically analysing the diverse challenges faced across jurisdictions and evaluating context-specific strategies for effective energy transition. Building on the foundations laid by previous X-Lab sessions and aligned with the goals outlined in Horizon Europe’s Cluster 5: Climate, Energy, and Mobility, the Z-Lab emphasizes the development of innovative tools and approaches to advance the global energy transition. One of the course’s key objectives is to engage students in comprehensive reviews of the academic and policy literature on energy, clean energy, and energy sustainability. Through this, students will identify and explore existing research gaps whether methodological, theoretical, policy-related, or practical, and begin to formulate original, evidence-based solutions. In doing so, the course supports the creation of replicable and scalable strategies that promote international cooperation, particularly through enhanced North-South and South-South partnerships. The lab also aims to build students’ research capacities by training them in advanced digital tools for literature review and analysis, helping them cultivate foundational skills in critical thinking, scholarly inquiry, and strategic planning. As an integral component of XYZ Camp—a wider suite of Research and Innovation initiatives including the R&I Lab, X-Lab, and Z-Lab—this course contributes to the holistic development of students. It fosters competencies essential for engaging with stakeholders, shaping evidence-based policies, and assuming leadership roles in the fields of energy, sustainability, and civil security.
Prerequisites
Basic skills in data analysis, solution design, and technological innovation are required, along with a good command of English since the study is taught solely in English. Candidates must be motivated to work on multidisciplinary challenges related to energy demonstrating problem-solving skills, teamwork, and the ability to identify current gaps in the literature and real-world observations and to develop innovative solutions. An open and creative mindset, oriented toward innovation, with the ability to strictly adhere to deadlines and schedules, is essential. Active participation in all scheduled sessions is also required
Intended learning outcomes
Z-Lab 2025 aims to develop practical and interdisciplinary skills to address real challenges in the energy sector, sustainability and adaptation to climate change in local and international innovation ecosystems. Students will acquire research gap identification skills, data extraction skills and gain knowledge on how to use other necessary and current research tools. Furthermore, the energy discourse will be carefully studied using scientific and policy documents and where necessary, energy sustainability reports from countries and continents. The course integrates principles of sustainability and resilience, with a focus on designing innovative solutions for the gaps identified. Energy innovation ecosystems oriented towards the justice principles (procedural, distributional, restorative and recognitive justice) and energy democracy to ensure that solutions created and designed for communities and contexts are adaptive to risks and crisis factors. Emphasis is placed on understanding the regulatory context and integrating innovative approaches for the mitigation of regulatory risks. At the end, participants will write and present a short scientific paper using the tools studied presenting real-world solutions to address energy poverty.
Course Contents
The Z-Lab ENERGY TRANSITION offers an interdisciplinary and practical path, with a focus on issues related to energy and associated factors (accessibility, affordability, reliability, security, democracy, justice, governance, policy, technology transfer and innovation). Students will be involved in data extraction activities, content analysis, systematic reviews and most importantly gap identification. A distinctive aspect of the course is the learning of tools and methodologies useful for drafting an original and short scientific paper with innovative solutions that can help to address the energy problem. The course ends with a presentation (both written and oral) examination of students.
Reference Books
In general, there are no specific textbooks required for the Z-Labs. Study materials will be identified and selected by students during the sessions in collaboration with lecturer(s). This approach reflects the enquiry-based and hands-on learning methodology, encouraging students to gather and analyze relevant sources and documentation based on the needs of their projects. In addition to the materials identified independently, instructors may provide handouts, scientific articles, reports, and case studies to support students’ work throughout the lab. Any additional guidance on materials specific to each lab will be communicated during the course.
Teaching Methods
The Z-Labs adopt an innovative and interdisciplinary teaching approach, based on methodologies that promote active student engagement and prepare them to tackle real-world challenges. Key methodologies include enquiry-based learning, which fosters critical thinking and independent research, and project-based learning, centered around practical projects addressing real-world problems. Students work in multidisciplinary teams with the support of guest lecturers and experts, applying the learning by doing principle. The process involves continuous feedback and iteration, allowing students to refine their solutions through prototyping and testing, including crash tests with external experts. The course also features a hybrid format, combining in-person and remote sessions, and develops use of scientific tools, scientific writing, pitching and public speaking skills, essential for presenting solutions to a panel of experts. These methodologies ensure a practical and comprehensive learning experience, equipping students with the skills needed to successfully navigate the job market whether in the corporate world or research institutions.
Assessment Method
The final assessment of the Z-Labs 2025 course is based on a scientific review paper. Although the groups will present their papers, it will be an add up to the main scientific review paper and assessed together. Additionally, continuous assessment throughout the course includes several elements: active participation in sessions, measuring students' engagement in discussions and activities, and contribution to group work, evaluating their ability to collaborate in multidisciplinary teams and add value to the project. These assessment methods ensure a comprehensive evaluation, rewarding not only the final project outcome but also the learning process and skill development. The integrated approach ensures that students demonstrate problem-solving skills, teamwork, the ability to develop innovative solutions, and strict adherence to deadlines and schedules, all of which are essential for success in complex and dynamic professional environments.
Thesis assignment criteria
The criteria for assigning the final project in Z-LAB vary depending on the specific lab but follow common guidelines to ensure that the project reflects both the theoretical understanding and practical skills of the students. The project must be aligned with the course topics, addressing the themes covered in the lab. The originality and innovation of the proposed solutions are evaluated, measuring the student’s ability to present new and creative ideas. It is essential to demonstrate the practical application of theoretical knowledge, highlighting how the concepts learned have been translated into real-world solutions. Another key criterion is the quality of research and sources used, emphasizing the use of reliable resources to support the proposals. The project must be clear and well-structured, with logical arguments and a professional presentation. The sustainability and feasibility of the solutions are assessed to ensure they are realistic and applicable in the long term. Students must also show analytical and synthesis skills, effectively processing complex data and summarizing it efficiently. Lastly, the students’ active participation and contribution during the course are considered, with a focus on teamwork and engagement in collaborative activities. These criteria ensure an integrated approach, valuing both the process and the outcome.
Week 1
Introduction & Overview of the Course
During this week’s lesson, students will be introduced to the general overview of the course which is structured into phases considering the objectives of the course.
Phase I: This part exposes students to the types of literature review, purposes of Literature Review and how they are conducted, the tools (Rayyan, Elicit, Litmaps and others) used to conduct reviews and how to identify research gaps. Using various scientific documents as cases, we will identify and learn the various types of gaps and which ones are the most suitable for which review.
Phase II: This part delves into Energy literature to help understand the various gaps in both the Global North and South countries. The themes and patterns pertaining to the literature will also be identified. Furthermore, an in-depth overview of Energy Transition and its associated and related aspects.
The topic of this week is Energy as an Academic Discipline.
Week 2
Introduction to Literature Review
This week introduces students to the various types of literature review.
Systematic Review, Scoping Review, Bibliometric Review, Meta-Analyses, Bibliometric Review and Literature Review.
Tools, databases, materials and methods used to conduct these reviews.
Activities planned for this phase:
Use scientific documents and materials in class and explore the types of reviews and how they are conducted.
Explore how to use the most prominent databases: Scopus and Web of Science and acquire some of these documents from the databases.
Carefully analyse the materials & methods session as well as the results of the documents in relation to the course objective.
Week 3
Introduction to Literature Review
In this lesson, students will focus on delving deeper into conducting a literature review for a scientific paper, thesis or a review using tools such as Litmaps that aid in mapping out the most relevant and related papers and references suitable for an area.
In this phase, it will be essential to gather information on conducting:
Desk research: to analyze existing sources and consolidate available data
The activities for this phase include:
Explore the specifics involved in conducting literature
Keyword setting and how to search using keywords in the databases
Cleaning the data: use the inclusion and exclusion criteria
Manual cleaning or using Rayyan to assist in refining the data
Creating the PRISMA framework
Final documents to be used in identifying the research gaps.
Week 4
Identifying Research Gaps
In the third lesson, students will be guided in identifying and extracting gaps such as knowledge gaps, theoretical gaps, solution gaps, etc. After the gaps are identified, emerging themes and patterns that could emerge as solutions and new areas of research. The main topics addressed will be as follows:
Research Gaps:
Knowledge gaps
Theoretical gaps
Solution gap
Emerging themes and patterns
Planned Activities:
Apply and explore some of the tools and how they are used to identify the gaps and themes.
Division of students into ad hoc groups focused on a specific area of analysis.
Group work aimed at identifying the gaps and themes and formulating research objectives or topics.
Week 5
Introduction & Overview of Energy Transition
In this session, the primary goal is to expose and dig deeper into the matter of energy transition, SDG 7 and other goals, and energy justice.
During this phase, the following activities will take place after the overview of the topic:
Team Comparison and Feedback Sharing: Students will be arranged in groups and practice reviewing the literature with the databases and tools on the topic studied for the day.
Synthesis of Ideas: The teams will then synthesize the various documents and extract the gaps they have identified and discuss this together with the class.
Critical Reflection: Students will be guided to reflect critically on the gaps and propose solutions and recommendations to address these gaps.
Students will leave this session with a clearer understanding of the direction they need to take for the next stages of the project, ensuring that their work is well aligned with both the practical and theoretical aspects of the challenge.
Week 6
Just Transitions: Challenges and Opportunities
Together with students, the energy literature will be explored and using a PESTEL or SWOT analysis, we will consider the strengths and weaknesses as well as the threats and opportunities that the transition offers for various economies: developed and developing.
The opportunities and challenges identified will pave way for the other topics of the following weeks.
Explore conceptual frameworks and policies related to this
Investigate just transition principles
Week 7
Innovation for Energy Transitions
In this lesson, students will explore innovation opportunities and the future of energy systems such as hydrogen and clean biofuels.
Overview of technologies and models for energy and mobility: During this phase, students will have the opportunity to examine the main technologies and models for energy production and consumption, as well as mobility. The most promising hydrogen solutions will be explored, comparing the latest innovations, scalability opportunities, and technical challenges. The integration of various models will also be discussed, along with how they can contribute to the transition toward a sustainable future by analyzing the economic, environmental, and social implications of the different technologies.
Exploring Additional Hydrogen Applications:
The lesson will begin with an in-depth exploration of various sectors that could benefit from hydrogen technologies. Students will learn how hydrogen can be applied in industries such as steel production, shipping, aviation, and even residential energy solutions. These sectors, while not necessarily the focus of students' projects, could benefit from hydrogen in different ways. For example, hydrogen could be used to decarbonize heavy industries that rely on fossil fuels, or it could be applied in the production of green ammonia for agriculture. By understanding these applications, students will gain a broader view of the impact of their work and how hydrogen could revolutionize various industries. Students will learn about different hydrogen technologies that exist beyond transportation, such as hydrogen-powered microgrids and off-grid solutions, which can provide clean energy to remote areas or communities not connected to the grid.
Integration with Other Renewable Technologies:
A key discussion will focus on how hydrogen can be integrated with other renewable energy technologies, such as solar, wind, and geothermal. Students will see how hydrogen can act as an energy storage medium, improving the efficiency and sustainability of renewable energy systems, especially in areas where energy demand is variable. This part of the lesson will focus on the concept of hydrogen economy, where hydrogen serves as the link between energy production, storage, and consumption, integrating into a broader, more sustainable energy system.
Week 8
Technology Transfer for Energy Transition (International & Intranational)
In the eighth lesson, students will have the opportunity to explore the technology transfer literature, specifically the energy area to understand the trends and patterns, how technology transfer has accelerated the energy transition in emerging emerging economies, how technology transfer has proven to be beneficial in transforming partnerships, cooperation and development and reducing energy poverty while promoting environmental preservation. It will further focus on analyzing global and local trends, highlighting how technological innovations emanating from technological transfers and transformations may influence the future of these critical sectors.
The main objective will be to identify the gap with technological management (adoption, diffusion and transfer) within the energy sector and proposed solutions to the most recent technological developments and market trends, ensuring that the ideas developed are not only innovative but also capable of addressing future challenges. The lesson will focus on how to optimize projects so they are resilient, adaptable, and transferrable while anticipating changes that may alter the energy landscape.
Expected Activities:
Analysis of country and industry trends and clues about the future of energy: During this phase, students will explore future developments through case studies and research reports, examining key indicators that suggest how these sectors will evolve in the coming years. Technological, economic, and regulatory factors that could impact the energy landscape will be analyzed.
Optimization of expert feedback: The focus will be on integrating suggestions to improve the approach and optimize solutions, making them more robust and future ready. Areas such as sustainability, efficiency, scalability, and adaptability of the solutions will be worked on.
Preparation of solutions ready for the future: Students will be encouraged to reflect on how their proposals can evolve to remain relevant and innovative in an advanced technological world. They will work to identify possible development, transfer, evolution, and integration scenarios for the proposed solutions, also evaluating strengthen collaborations with other players, such as universities, government bodies, and innovative companies.
Week 9
Financing the Energy Transitions
Lesson nine will explore and focus on the comparison of the various financing solutions available within the energy literature and after conducting the planned activities which is synthesis and aggregation, identify the emerging trends and patterns to develop new sources of financing energy projects. The session further explores which finance mechanisms works best for developing and developed economies since most of the one-size-fits-all approaches have not been helpful enough. Also, the session further investigates how developing countries can self-fund and finance energy projects and design suitable financial policies for energy transition programmes.
From a developed economy perspective (EU), additionally, we will explore how to access European research and innovation funding, a key aspect for advancing technologies related to energy and mobility. The discussion will focus on how to structure funding applications in response to European calls, analyzing the opportunities offered by different funding lines and how these can accelerate the technological progress of the proposals.
Planned Activities:
Defining Financial Models for Formal and Informal economies: We will explore the most suitable financial tools and policies that can be designed for the energy sector, focusing on how to further use and manage natural and renewable resources, time, and activities effectively to achieve project objectives. More importantly, the financial model should be designed to make it easily integrated into systems: developed and developing countries, thus factoring in the structure of their economies, current energy structure as well as existing policies in line with energy and energy transition.
Financial investments and future trends evolved of support schemes and auctions worldwide.
Week 10
Governance Models for Energy Transitions (quintuple helix)
In this lesson, students will deepen their understanding of governance and polycentrism and how it can shape energy transition efforts, mechanisms and strategies within industries and economies in ways that may not have been considered during the development of their projects. Through the document analysis of studies and emerging trends, students will be encouraged to think creatively about how the various actors can play different roles from their usual ones and can be well integrated into various sectors to promote sustainability, innovation, and economic growth while fostering energy transition. The session commences with history and the institutional context of energy transition.
-current state of Energy Transition in the Global North and Global South, the role of state actors and the public sector in the transition process.
-the role of private actors in the transition process and how to create checks and balances while exploring options of green hydrogen (competition in energy market: renewable energy sources topics)
-the role of knowledge actors through research and development activities to accelerate the energy transition process (hydrogen, thermal and more).
-the role of civic actors (NGOs, CSOs, non-state actors such as religious groups and bodies as well as communities and citizens and the media) in helping this process-Renewable Energy Communities (RECs)
-meeting targets of the transition process and an overview of the state of the environment, climate change and biodiversity in the Global North & Global South.
Week 11
International policies and regulatory frameworks and its influence on Energy Transition
This part of the course will expose students to carbon markets: carbon pricing, the EU emission trading systems (EU ETS), and Carbon Border Adjustment Mechanism (CBAM)
International Carbon Credits & International
Carbon policies- Carbon Taxes and Trading Emission Systems in Asia & Africa.
Policies on Renewables – Analysing cases from different countries apart from the EU.
Planned Activities:
Extract the relevant documents from databases using the keyword search.
Analyse the documents and identify the recurrent gaps as well as conduct an analysis to identify the emerging themes and patterns.
Propose a solution
Week 12
Final Submission & Pitching
PoCs Pitching: Presentation of solutions in-house and peer-review.
Students will present the gaps they identified, the methods and process of review they used, their findings and present suggested solutions effectively by structuring their final presentations, improving their scientific writing and public speaking skills. The goal is to provide them with the necessary tools to communicate their ideas clearly both verbally and written, convincingly, and professionally.
The focus will be on clarity and conciseness, ensuring that each student can present their proposal in a brief yet complete manner.
Public Speaking Exercise:
A crucial part of the preparation will be dedicated to improving public speaking skills. Each student will have the opportunity to perform a pitching trial in front of their peers and mentors, receiving immediate feedback on how to improve their message and approach.
Preparation of Visual and Support Materials:
Alongside verbal preparation, students will also work on the visual and support materials that will accompany their presentations. They will learn how to create compelling slides that are not overloaded with information, supporting and reinforcing their message both in the scientific paper and in slides. The importance of using graphs, charts, and images to explain complex concepts while maintaining the audience's attention will be discussed. Practical tools will be provided to design visuals in a simple and effective way, using presentation software and exploring creative solutions to make presentations more engaging.