Community Energy
Level 3: Advanced
Let's go!
Introduction
This course describes the idea of community energy as a bottom-up approach to the energy transition, emphasizing the role of local stakeholders, which includes citizens, towns, and businesses, in producing, managing, and owning energy. It provides a guided pathway in six modules on major topics including project design, critical evaluation, regional socio-economic effects, EU policy instruments, and advanced AI and blockchain applications. The course is targeted at policy makers, teachers, cooperative members, and active citizens, and enables the participants to enhance their knowledge and skillset to promote localized energy systems that are equitable, participatory, and environmentally responsible. Let’s build the future of community energy—smarter, stronger, and together.
Start Course
Community Energy Level 3: Advanced
Objectives
Modules
Exercises
Evaluation
Module 1: Introduction
What will you learn?
- Apprise the rationale and advantages of community energy systems in relation to the energy transition.
- Analyze the processes within a community energy project and explain major actors in detail to depict effective management.
- Evaluate the cost, savings, and overall feasibility of community energy initiatives using primary financial assessment techniques.
- Define significant policies and legal documents pertaining to the European Union with regard to energy communities and civic engagement.
- Analyze different governance and ownership structures including cooperative and municipal partnerships.
- Assess the impact of emerging technologies, including digital and intelligent systems, on community energy.
- Create a design for a project that incorporates the technical, economic and sociological elements of community energy.
Modules
Module 2: Management in Community Energy Projects
Module 3: Economic Impact Assessment of Energy Projects
Module 1: Introduction and objectives
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Module 5: Innovative renewable technologies
Module 6: Conclusion
Module 2: Management in Community Energy Projects
Designing a community energy project means more than just selecting solar panels or wind turbines. It’s about identifying local needs, choosing suitable technologies, mobilizing citizens, securing funding, and ensuring long-term viability. This process requires multidisciplinary thinking, combining technical, social, environmental, and financial skills. Management of a community energy projects is not only about technical and financial part, it is also about the how community is cooperating, decide's and support's the project longterm. It is a very crucial factor that determines the success, sustainability and social acceptance of a project like that.
Module 2: Management in Community Energy Projects
What management in community energy projects involve:
Management of infrastructure and technical issues
Communication and community engagement
Time management and overview of the project
Financial management
Legal and regulatory compliance
Organization and coordination of participants
Module 2: Management in Community Energy Projects
What is community energy project management?
Management of such projects is about the coordination of all procedures and people who participate in it. It is not restrained only in operation of energy production technologies but also: 1) Desicion making 2) Resource management 3) Overview of the project 4) Strengthening of citizens participation
Desicion making
Resource management
Financial resourses (investment funds, subsidies), Human resourses (community members, volunteers, specialists), Technical resourses (equipment, infrastucture)
Threats
Collective decision making through clear and fair procuderes, transparecy in inrofming the members, representation of all parts.
Weaknesses
This is a paragraph of text waiting to be awesome content
This is a paragraph of text waiting to be awesome content
Overview of the project
Strengthening of citizens participation
Technical performance indicators (energy, production, maintenance etc.) Financial evaluation (cash flow, costs, payments etc.) Social performance (level of participation, member satisfaction etc.)
Strengths
Opportunities
Active participation of citizens Encouraging dialogue and responsibility Creative environment for citizens
This is a paragraph of text waiting to be awesome content
This is a paragraph of text waiting to be awesome content
Module 2: Management in Community Energy Projects
Key roles and responsibilities
There are some key roles and responsibilities in the management procedure. The most important are: 1) Management board: A board with people who are responsible for strategic guidance and decision making of the project 2) Technical manager: Responsible for project maa=intenance, general safety and smooth production 3) Financial manager: Responsible for the project budget, accounts and cash flow 4)Communication Manager: Responsible for the smooth and on time information distridution, dissemianting the projects milestones to the genral public and handling member realtions
Module 2: Management in Community Energy Project
Feasibility Study
A feasibility study evaluates whether the community energy project is viable from a technical, financial, and legal perspective. It helps determine if the proposed solution can actually work in practice. Establishing all that helps a proper management as well. This includes assessing available resources (like solar potential or grid access), estimating costs and return on investment, and checking regulations or permits required. It also identifies potential barriers early, allowing for smarter planning and risk management. A solid feasibility study increases confidence among stakeholders and funders by showing that the project is both realistic and sustainable. A feasibility study determines whether a community energy project is realistic and sustainable. It focuses on three key areas: technical, financial, and regulatory feasibility.
- Technical feasibility examines if the local conditions support the chosen technology—for example, solar exposure, wind speed, or grid connection.
- Financial feasibility estimates project costs, funding needs, and potential returns, helping assess affordability and long-term value.
- Regulatory feasibility checks for necessary permits, energy laws, zoning rules, and any policy incentives that may apply.
Module 2: Management in Community Energy Projects
Stakeholder Mapping & Engagement
Engaging the right people early is key to a successful community energy project. Stakeholder mapping helps identify everyone affected by or involved in the project—residents, local authorities, businesses, NGOs, and utility providers. Using tools like an interest vs. influence matrix, project teams can prioritize outreach, ensuring that high-interest, high-influence stakeholders are closely involved. Engagement activities, such as town halls, surveys, or workshops, build trust, gather input, and create a sense of shared ownership. Meaningful participation increases support, reduces resistance, and leads to better, more inclusive decisions.
Module 2: Management in Community Energy Projects
Project Planning & Management
Once goals are clear and feasibility is confirmed, it’s time to turn the idea into action. This phase involves creating a detailed project plan, including timelines, milestones, budgets, and assigned roles. Tools like Gantt charts can help visualize the project’s progress and deadlines, while risk management plans prepare the team to handle delays, funding issues, or technical problems. Defining who does what,from coordination to installation, ensures accountability. A well-structured plan helps the project stay on track, adapt to challenges, and move efficiently from design to implementation.
Source: https://www.usemotion.com/blog/gantt-chart
Module 3: Economic Impact Assessment of Energy Projects
How Community energy impacts the Economy
- Job Opportunities → Community energy programs create employment opportunities in the local community in the areas of manufacturing, installation, maintenance, project management, and more.
- Reduced Dependence on Imports → Communities are able to retain funds which would have otherwise been earmarked for energy imports by investing in the local economy’s energy infrastructure.
- Lower Expenses for Energy → Residents and enterprises within the community would also enjoy reduced energy costs, enabling them to reallocate resources towards other projects.
- Enhanced Self-Sufficiency → The less dependent a community is on the international energy market for volatile energy prices, the more self-sufficient it becomes.
- Economic Growth → Enhanced self-sufficiency fosters the inflow of new businesses and residents to the area, as these schemes boost economic development.
Module 3: Economic Impact Assessment of Energy Projects
Assessing Economic impact
Assessing the economic impact of community energy initiatives entails employing a systematic approach. It necessitates monitoring specific parameters like employment opportunities, investment within the region, savings on energy expenditures, and the tax revenue earned. Moreover, it’s critical to account for the economy’s indirect consequences, for instance, enhanced property value and lowering healthcare spending because of better air quality. In addition, it is important to examine the range and distribution of the economic advantages resulting from community energy projects. Are these benefits mostly limited to the affluent members of the community or are they distributed fairly among community members? Tackling equity matters is important so that community energy initiatives can help alleviate economic inequality while promoting sustainable development.
Assessing community energy projects requires an in-depth examination of financing, regulation, and various models, while focusing on equity and widespread community advantages.
Module 3: Economic Impact Assessment of Energy Projects
Economic Advantages from Community Energy projects
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Module 3: Economic Impact Assessment of Energy Projects
Key Elements of Economic Assessment in Community Energy
Operational and Maintenance Costs (OPEX)
Energy Cost Savings
Capital Costs (CAPEX)
Financial Performance Metrics
Revenues
Module 3: Economic Impact Assessment of Energy Projects
Tools and Methods
1. Financial modeling tools They are used for the estimation of the capital costs, energy savings, payback periods, internal rate of return (IRR), and levelized cost of energy (LCOE).
Tip: A financial model makes it easier to examine alternatives (e.g. technology or ownership) and forecast their returns in the long run.
Module 3: Economic Impact Assessment of Energy Projects
Tools and Methods
2. Community-Based Participatory Budgeting (CBPB) CBPB, or Community-Driven Participatory Budgeting Process, denotes a democratic approach through which community members directly determine how to subdivide a budget or how profits in a project are to be reinvested.
🔁 How it's used in energy:
For directing investments. (e.g., Expand PV? Storage? Insulation upgrades?)
For defining the purposes of income funds (e.g., social welfare funds, energy bill subsidy funds)
Example:
An energy cooperative in a village has annual meetings where they decide on the surplus income allocation: 40% for system upgrades, which are provided as 30% community energy fund dividends, and 30% are paid as dividends to members.
Module 3: Economic Impact Assessment of Energy Projects
Tools and Methods
3. Sensitivity Analysis This approach studies how the outcome of an economy shifts due to changes in critical factors or assumptions of the model.
Common Variables:
Energy prices (e.g., retail tariffs are increasing)
PV output (e.g., variability due to weather)
Discount rate (e.g., cost of capital)
Government funding policy alterations or changes in policies
Example:
A cooperative investigates the effect of increasing electricity prices from €0.20 to €0.35/kWh on the payback time of solar + battery systems. The outcome is that payback reduces from 11 years to 7 years.
Module 3: Economic Impact Assessment of Energy Projects
Tools and Methods
4. Scenario ModelingScenario modeling as a technique involves evaluating a project’s performance on the basis of its three-dimensional alternatives, thus helping to foresee the future.Typical scenarios:
- Solar Systems Adoption: Change in Community Profitability Stakeholder Net Benefit when 30% vs 70% of Households Install PV.
- With vs Without Available Energy Storage
- Centralized Grid Supply vs Community Microgrid
- Mixed-Income Community Membership vs Low-Income Community Membership
Example Use Case: A municipality models three scenarios:
- Scenario A: No project baseline (No community project).
- Scenario B: Bare functionality community solar without storage.
- Scenario C: Complete functionality community solar with storage + dynamic tariffs.
- Results show that Scenario C offers 22% greater returns and achieved self-consumption at a faster rate.
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Community energy EU framework
The EU Community Energy Framework is a policy and legal framework that lives within the ‘Energy’ section of the EU law and allows, supports the engagement of citizens and communities in the energy transition process. It represents a change from the current communistic, centralized modes of energy production and delivery towards participatory, localized, democratic systems of energy production and consumption as invoked in the European Clean Energy Package and the European Green Deal.
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Rights and Protections
As per the EU legislation, energy communities are entitled to:
- Generate, utilize, store, and market energy (self-consumption & peer-to-peer sharing)
- Obtain unbiased and reasonable grid fee access
- Engage in energy market activities (retail, aggregation, and flexibility)
- Obtain regulatory assistance (for instance, easier project approval processes for small-scale initiatives)
- Receive assistance by Member State policies and frameworks
Visit the European Union website to learn more about the legislation
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Partner countries obligations
Every European Union Member State has to:
- Incorporate the Directives at the national level
- Eliminate unjustified obstacles to community energy
- Guarantee access to the market on nondiscriminatory basis
- Offer policy, non-conflictual, and fiscal support to the energy communities
- Aid citizens and communities in designing and implementing localized regional energy strategies.
As with most policies in the EU, it is equally critical that Member States follow legislation on community energy as doing so allows all citizens, local governments, and micro enterprises to be active participants in and beneficiaries of the energy transition. Through the adoption of appropriate legal and financial measures, Member States foster the democratization of energy systems, alleviate energy poverty, and increase renewable energy adoption at the local level. Compliance also enhances energy resilience, bolsters local economic development, and supports the alignment of subnational policies with EU strategic climate objectives, thus making sure that the Green Deal is not only top-down, but rather driven by citizens and inclusive.
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Key EU-Level Policies
Clean Energy for All Europeans Package (2019)
Renewable Energy Directive (RED II).
State Aid Guidelines for Climate and Energy (CEEAG)
Electricity Directive (EU) 2019/944
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Clean Energy for All Europeans Package (2019) This EU policy framework introduced the concepts of Renewable Energy Communities (RECs) and Citizen Energy Communities (CECs). It recognizes the rights of citizens to generate, consume, store, and sell renewable energy individually or collectively. Renewable Energy Directive (RED II) Encourages Member States to support community ownership models and simplify administrative procedures for small producers. It aims to remove barriers and promote the growth of decentralised, citizen-driven energy. Electricity Directive (EU) 2019/944 Defines legal rights for Citizen Energy Communities, including fair access to energy markets and the ability to operate their own distribution networks under certain conditions. State Aid Guidelines for Climate and Energy (CEEAG) Outlines how governments can provide financial support for community and green energy without violating competition laws.
Analytically...
Module 4: Community Energy Framework in the European Union (EU) and partner countries
National Implementation Examples Greece Greece introduced its first legal framework for community energy with Law 4513/2018, which formally recognizes Energy Communities (EnCos). These entities can produce, store, and distribute energy, often with tax exemptions and access to national funding. While the legislation is supportive, implementation has faced bureaucratic delays and grid connection difficulties, which continue to be significant barriers for small communities. Bulgaria Community energy is still at an early stage in Bulgaria. While the EU directives apply, there is no dedicated national legal framework for energy communities as of now. Projects are typically led by municipalities or NGOs on a pilot basis. Challenges include low public awareness, lack of financial incentives, and a centralized energy market that offers limited space for citizen participation. Italy Italy has made strong progress with Legislative Decree 199/2021, which promotes Renewable Energy Communities (RECs) in line with RED II. The decree simplifies administrative procedures and allows self-consumption and energy sharing among members. National incentives such as feed-in tariffs and investment subsidies have made Italy one of the more supportive countries in Southern Europe for community energy.
Module 4: Community Energy Framework in the European Union (EU) and partner countries
National Implementation Examples Lithuania Lithuania has adopted laws enabling energy communities and has included them in national climate strategies. Citizens can now join or create cooperatives that generate and share renewable energy. Supportive frameworks are in place, but limited financial resources, technical expertise, and low visibility of the concept remain obstacles to rapid growth. Austria Austria is considered a leader in community energy. Since 2021, it has adopted a national legal framework for Energy Communities aligned with EU directives. Austrian law encourages both renewable and citizen energy communities, offering access to simplified permitting, incentives, and grid access. Strong cooperative traditions and regional energy agencies further support community-led initiatives.
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Initiatives for energy communities
1. EU Energy Communities Repository(Helps citizens start and grow energy communities with mentoring and funding) https://energy-communities-repository.ec.europa.eu2. EU Rural Energy Community Advisory Hub Focuses on rural and remote regions https://rural-energy-community-hub.ec.europa.eu 3. REScoop.euThe federation of European citizen energy cooperatives https://www.rescoop.eu
Module 5: Innovative renewable technologies
Innovative renewable technologies go far beyond simply producing green energy—they fundamentally transform how energy is managed, shared, and experienced within a community. These tools allow energy systems to become intelligent, responsive, and deeply participatory. Artificial Intelligence (AI) can forecast energy production and demand by analyzing usage patterns and weather data, while smart grids automatically balance supply and demand across different homes and facilities. Blockchain enables peer-to-peer trading, allowing neighbors to buy and sell electricity securely and transparently. Digital twins allow communities to simulate different scenarios before making costly or technical changes. Combined with digital engagement platforms, these innovations help shift citizens from passive consumers to active energy participants.
What Makes Technology “Innovative” in Community Energy?
Module 5: Innovative renewable technologies
Artificial Intelligence in Community Energy Artificial Intelligence (AI) is rapidly transforming the way energy systems are managed at the community level. By using predictive algorithms, AI can forecast both energy production—based on factors like weather and sunlight—and community consumption patterns. This enables automated adjustments to energy flow, maximizing efficiency and reducing waste. AI also plays a key role in grid optimization, identifying maintenance needs before failures occur and helping to balance load distribution. A real-world example is the use of AI-driven solar inverters, which can adjust output dynamically based on sunlight forecasts and live community usage data. This type of technology not only improves performance but also supports more responsive and resilient community grids.
Module 5: Innovative renewable technologies
Decoded: What is a 'Smart Grid' and how does it work?
Smart Grids and Digital TwinsSmart grids are intelligent electricity networks that manage the flow of power in real time, allowing both energy consumption and generation to happen simultaneously within a local system. These networks integrate distributed energy resources (DERs), electric vehicles, and storage solutions while continuously adjusting to shifts in supply and demand. Key components of a smart grid include smart meters, IoT-connected sensors, and automated substations—all of which work together to optimize system performance. In parallel, digital twins act as virtual models of real energy systems. Communities can use them to simulate upgrades, test new technologies, and assess system vulnerabilities before implementing changes in the real world. Together, smart grids and digital twins form the digital backbone of modern, data-driven community energy.
Module 5: Innovative renewable technologies
Blockchain and Peer-to-Peer Energy TradingBlockchain is a powerful tool that enables secure, transparent energy transactions without the need for central intermediaries like utility companies. In community energy settings, blockchain allows residents with solar panels or other generation sources to sell their surplus energy directly to neighbors—creating decentralized, peer-to-peer (P2P) trading networks. These micro-transactions are recorded and verified automatically, reducing administrative costs and increasing trust among users. By decentralizing the flow of energy and money, blockchain platforms support local energy independence, encourage citizen participation, and promote equitable energy access within communities. As energy systems become more interconnected, blockchain ensures that community ownership remains fair, traceable, and transparent.
Module 5: Innovative renewable technologies
Case Study: BürgerEnergie Berlin (Germany) Overview: Power Ledger is a tech-driven platform based in Australia that enables peer-to-peer energy trading through a combination of blockchain and artificial intelligence. It allows households with solar panels to sell excess electricity directly to others in their community—creating a transparent, local energy marketplace. Key Highlights:
- Uses blockchain to manage and record energy transactions securely and in real time.
- AI algorithms help forecast supply and demand for smarter, more efficient energy distribution.
- Offers a simple digital interface where users can monitor usage, set prices, and receive payments.
- Encourages local energy independence and reduced reliance on large utility companies.
Takeaway: Power Ledger demonstrates how innovative digital technologies can transform traditional energy systems into participatory, decentralized networks. It shows how communities can take control of their energy production and consumption while promoting sustainability, transparency, and engagement.
https://powerledger.io/
Module 6: Conclusion
The course emphasizes that the energy transition is not only a technological change, but rather a reconfiguration of structures—including economic, social, and political systems. As discussed in the modules, community energy projects can stimulate local employment, reduce costs, enhance democratic participation, and build resilience. Through examining enabling policies and effective management, alongside new digital tools, the course outlines how communities can mitigate obstacles and subsequently expand their reach. Participants are encouraged to apply this knowledge and assume different roles to advance local energy initiatives wherever possible. The conclusion is unequivocal: energy initiatives will be locally driven, participatory, and collaboratively transformed.
Exercises
Exercise 2
Exercise 1
In this exercise, learners are going to create a workable plan for a community energy project within a specified locality. They will balance the technological options of an energy system alongside the definable system management and economics including the relevant policies of the EU, key players, stakeholders, and economical aspects of the energy solution. Through the application of community conceptual frameworks such as stakeholder mapping and rudimentary budgeting, learners demonstrate how community projects can be designed to enhance participation, sustainability, and local impacts. The final output will be a brief proposal, presentation, or audio recording that encapsulates a well-defined and practical project idea.
IIn this activity, learners will develop a creative plan for integrating advanced technologies into a fictional or real community energy system. By selecting two digital tools—such as AI, blockchain, or digital twins—they will describe how these innovations improve performance, reduce costs, or boost engagement. The outcome will be a short written concept or a visual sketch that illustrates the system and its benefits. .
Practical Exercise: Tech Integration Brainstorm
Objective:
Learners will design a tech-enhanced plan for a community energy system using one or more digital innovations.
Steps::
- Select a fictional or real community (urban or rural).
- Choose 2 innovative technologies (e.g., smart meters, AI analytics, blockchain, digital twin).
- Describe how each would be applied to improve the project.
- Explain expected benefits: increased efficiency, cost reduction, or better community engagement.
- Sketch the system on paper or digitally using diagrams or short descriptions.
Deliverable: A short written concept (300–400 words) or infographic/system sketch.
Practical Exercise: Design a Community Energy Project Framework
Objective:
Learners will Design a Community Energy Project Framework
Steps:
- Define the Community Context
- Choose the Energy Solution
- Design the management structure
- Assess the Economic Dimensions
- Identify and map stakeholders
- Align with EU Policy
- Present your framework
Deliverable: Short proposal (1-2 pages) or Presentation (4-6 slides)
Evaluation
Evaluation Quiz
1. This quiz consists of 10 multiple-choice questions related to energy sources, environmental impact, and energy transition.
2. Choose the correct answer for each question (only one per question).
3. The quiz helps reinforce key concepts covered in the course.
Quiz
Quiz
Quiz
Quiz
Quiz
Quiz
Quiz
Quiz
Quiz
Quiz
Sources
Energie Partagée. (n.d.). Participer au financement citoyen de la transition énergétique. Retrieved from https://energie-partagee.org/
Energent. (n.d.). Smart energy management for housing cooperatives. Retrieved from https://www.energent.fi/
European Commission. (2019). Clean energy for all Europeans package. Retrieved from https://energy.ec.europa.eu/topics/energy-strategy/clean-energy-all-europeans_en
European Commission. (2020). Horizon 2020 Projects: Community energy and innovation. Retrieved from https://ec.europa.eu/programmes/horizon2020/
Interreg North Sea Region. (n.d.). ECCO - Energy Community Co-Operatives. Retrieved from https://northsearegion.eu/ecco/
Power Ledger. (n.d.). Empowering energy markets. Retrieved from https://www.powerledger.io/
REScoop.eu. (n.d.). MECISE – Mobilising European Citizens to Invest in Sustainable Energy. Retrieved from https://www.rescoop.eu/mecise
REScoop.eu. (n.d.). European Federation of Renewable Energy Cooperatives. Retrieved from https://www.rescoop.eu/
Smart Energy International. (2022). AI and predictive analytics in smart grid energy management. Retrieved from https://www.smart-energy.com/
Trello. (n.d.). Project management tools for collaboration. Retrieved from https://trello.com/
Certificate
Congratulations!
Certificate of Completion
To receive an Open Badge for this course, please contact the local project partner: Kaunas University of Technology.
Level completed!
Funded by the European Union. Views and opinions expressed are however those of the author(s) only and do not necessarily reflect those of the European Union or the National Agency. Neither the European Union nor National Agency can be held responsible for them.
Threats
Contextualize your topic
- Plan the structure of your communication.
- Give it a hierarchy and give visual weight to the main point.
- Add secondary messages with interactivity.
- Establish a flow through the content.
- Measure results.
Opportunities
Contextualize your topic
- Plan the structure of your communication.
- Give it a hierarchy and give visual weight to the main point.
- Add secondary messages with interactivity.
- Establish a flow through the content.
- Measure results.
Why it’s a benefit:
Community energy projects need local manpower for planning, installation, operation, upkeep, administration, education, and public relations.This:
- Creates direct jobs (coordinators, technicians)
- Supports indirect employment (energy advisors, engineering firms)
- Develops green workforce skills in the community
Increased spending power leads to rising employment opportunities and entrepreneurial activities in the community.
Why it’s a benefit:
Because community energy is locally owned, the majority of profits and savings on energy expenses:
- Stay in the area
- Get reinvested into regional infrastructure, businesses, and community services
Each euro contributed by a local project offers a return far greater or a “multiplier effect”, propelling broader local economic development.
Why it's a benefit:
The community members utilised under the micro and small construction projects financing have shown that they frequently receive electricity at a far lower cost when compared to the market price and even engage in profit sharing as concerning the energy project.This is especially impactful for:
- For improving energy equity, low income earning households are the primary beneficiaries.
- For remote or underserved areas, it helps increase access to reliable and stable energy services.
The reduced energy poverty, coupled with an increase in savings, translates to a greater portion of disposable income in the community – and thus contributes more to community development.
Weaknesses
Contextualize your topic
- Plan the structure of your communication.
- Give it a hierarchy and give visual weight to the main point.
- Add secondary messages with interactivity.
- Establish a flow through the content.
- Measure results.
Why it’s a benefit:
Community energy hubs can advance the development of:
- Regional value chains for providers of solar panels and battery services
- Green small and medium-sized enterprises and startups
- Training and technical schools
These clusters drive long-term sustainable innovation, competitiveness, and industrial green-shift growth in the region.
Why it's a benefit:
There is financial support for public projects through public aids, green grants and even loans that come with a lower interest rate.
They also have the capability of generating funds through Citizen shares, bonds, and even crowdfunds.
Another helpful method is the reduction of risks by diversifying ownership and sharing participatory control.
Often, in comparison to corporate led models, these projects require less expensive, as well as more stable means of financing, proving to be a beneficial long term investment.
Strengths
Contextualize your topic
- Plan the structure of your communication.
- Give it a hierarchy and give visual weight to the main point.
- Add secondary messages with interactivity.
- Establish a flow through the content.
- Measure results.
Why it’s a benefit:
In corporate-led initiatives, profits are generally siphoned off to shareholders or other external organizations.
- In community-owned projects:
- Returns accrue to local residents and organizations.
- Decisions are taken in accordance with the community’s interests.
- Long-term advantages are more equitably shared.
This means enhanced net economic value for the community per energy unit produced.
Why it’s a benefit:
The municipalities involved in community energy projects can:
- Create predictable revenue streams (e.g. from local utilities)
- Lower energy expenditures for public works and services
- Redirect surplus to social programs or community infrastructure
Increasing financial autonomy enables decreased reliance on central funding and unstable markets, bolstering overall resilience.
4.3 Community Energy
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Transcript
Community Energy
Level 3: Advanced
Let's go!
Introduction
This course describes the idea of community energy as a bottom-up approach to the energy transition, emphasizing the role of local stakeholders, which includes citizens, towns, and businesses, in producing, managing, and owning energy. It provides a guided pathway in six modules on major topics including project design, critical evaluation, regional socio-economic effects, EU policy instruments, and advanced AI and blockchain applications. The course is targeted at policy makers, teachers, cooperative members, and active citizens, and enables the participants to enhance their knowledge and skillset to promote localized energy systems that are equitable, participatory, and environmentally responsible. Let’s build the future of community energy—smarter, stronger, and together.
Start Course
Community Energy Level 3: Advanced
Objectives
Modules
Exercises
Evaluation
Module 1: Introduction
What will you learn?
Modules
Module 2: Management in Community Energy Projects
Module 3: Economic Impact Assessment of Energy Projects
Module 1: Introduction and objectives
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Module 5: Innovative renewable technologies
Module 6: Conclusion
Module 2: Management in Community Energy Projects
Designing a community energy project means more than just selecting solar panels or wind turbines. It’s about identifying local needs, choosing suitable technologies, mobilizing citizens, securing funding, and ensuring long-term viability. This process requires multidisciplinary thinking, combining technical, social, environmental, and financial skills. Management of a community energy projects is not only about technical and financial part, it is also about the how community is cooperating, decide's and support's the project longterm. It is a very crucial factor that determines the success, sustainability and social acceptance of a project like that.
Module 2: Management in Community Energy Projects
What management in community energy projects involve:
Management of infrastructure and technical issues
Communication and community engagement
Time management and overview of the project
Financial management
Legal and regulatory compliance
Organization and coordination of participants
Module 2: Management in Community Energy Projects
What is community energy project management?
Management of such projects is about the coordination of all procedures and people who participate in it. It is not restrained only in operation of energy production technologies but also: 1) Desicion making 2) Resource management 3) Overview of the project 4) Strengthening of citizens participation
Desicion making
Resource management
Financial resourses (investment funds, subsidies), Human resourses (community members, volunteers, specialists), Technical resourses (equipment, infrastucture)
Threats
Collective decision making through clear and fair procuderes, transparecy in inrofming the members, representation of all parts.
Weaknesses
This is a paragraph of text waiting to be awesome content
This is a paragraph of text waiting to be awesome content
Overview of the project
Strengthening of citizens participation
Technical performance indicators (energy, production, maintenance etc.) Financial evaluation (cash flow, costs, payments etc.) Social performance (level of participation, member satisfaction etc.)
Strengths
Opportunities
Active participation of citizens Encouraging dialogue and responsibility Creative environment for citizens
This is a paragraph of text waiting to be awesome content
This is a paragraph of text waiting to be awesome content
Module 2: Management in Community Energy Projects
Key roles and responsibilities
There are some key roles and responsibilities in the management procedure. The most important are: 1) Management board: A board with people who are responsible for strategic guidance and decision making of the project 2) Technical manager: Responsible for project maa=intenance, general safety and smooth production 3) Financial manager: Responsible for the project budget, accounts and cash flow 4)Communication Manager: Responsible for the smooth and on time information distridution, dissemianting the projects milestones to the genral public and handling member realtions
Module 2: Management in Community Energy Project
Feasibility Study
A feasibility study evaluates whether the community energy project is viable from a technical, financial, and legal perspective. It helps determine if the proposed solution can actually work in practice. Establishing all that helps a proper management as well. This includes assessing available resources (like solar potential or grid access), estimating costs and return on investment, and checking regulations or permits required. It also identifies potential barriers early, allowing for smarter planning and risk management. A solid feasibility study increases confidence among stakeholders and funders by showing that the project is both realistic and sustainable. A feasibility study determines whether a community energy project is realistic and sustainable. It focuses on three key areas: technical, financial, and regulatory feasibility.
Module 2: Management in Community Energy Projects
Stakeholder Mapping & Engagement
Engaging the right people early is key to a successful community energy project. Stakeholder mapping helps identify everyone affected by or involved in the project—residents, local authorities, businesses, NGOs, and utility providers. Using tools like an interest vs. influence matrix, project teams can prioritize outreach, ensuring that high-interest, high-influence stakeholders are closely involved. Engagement activities, such as town halls, surveys, or workshops, build trust, gather input, and create a sense of shared ownership. Meaningful participation increases support, reduces resistance, and leads to better, more inclusive decisions.
Module 2: Management in Community Energy Projects
Project Planning & Management
Once goals are clear and feasibility is confirmed, it’s time to turn the idea into action. This phase involves creating a detailed project plan, including timelines, milestones, budgets, and assigned roles. Tools like Gantt charts can help visualize the project’s progress and deadlines, while risk management plans prepare the team to handle delays, funding issues, or technical problems. Defining who does what,from coordination to installation, ensures accountability. A well-structured plan helps the project stay on track, adapt to challenges, and move efficiently from design to implementation.
Source: https://www.usemotion.com/blog/gantt-chart
Module 3: Economic Impact Assessment of Energy Projects
How Community energy impacts the Economy
Module 3: Economic Impact Assessment of Energy Projects
Assessing Economic impact
Assessing the economic impact of community energy initiatives entails employing a systematic approach. It necessitates monitoring specific parameters like employment opportunities, investment within the region, savings on energy expenditures, and the tax revenue earned. Moreover, it’s critical to account for the economy’s indirect consequences, for instance, enhanced property value and lowering healthcare spending because of better air quality. In addition, it is important to examine the range and distribution of the economic advantages resulting from community energy projects. Are these benefits mostly limited to the affluent members of the community or are they distributed fairly among community members? Tackling equity matters is important so that community energy initiatives can help alleviate economic inequality while promoting sustainable development.
Assessing community energy projects requires an in-depth examination of financing, regulation, and various models, while focusing on equity and widespread community advantages.
Module 3: Economic Impact Assessment of Energy Projects
Economic Advantages from Community Energy projects
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Module 3: Economic Impact Assessment of Energy Projects
Key Elements of Economic Assessment in Community Energy
Operational and Maintenance Costs (OPEX)
Energy Cost Savings
Capital Costs (CAPEX)
Financial Performance Metrics
Revenues
Module 3: Economic Impact Assessment of Energy Projects
Tools and Methods
1. Financial modeling tools They are used for the estimation of the capital costs, energy savings, payback periods, internal rate of return (IRR), and levelized cost of energy (LCOE).
Tip: A financial model makes it easier to examine alternatives (e.g. technology or ownership) and forecast their returns in the long run.
Module 3: Economic Impact Assessment of Energy Projects
Tools and Methods
2. Community-Based Participatory Budgeting (CBPB) CBPB, or Community-Driven Participatory Budgeting Process, denotes a democratic approach through which community members directly determine how to subdivide a budget or how profits in a project are to be reinvested. 🔁 How it's used in energy: For directing investments. (e.g., Expand PV? Storage? Insulation upgrades?) For defining the purposes of income funds (e.g., social welfare funds, energy bill subsidy funds) Example: An energy cooperative in a village has annual meetings where they decide on the surplus income allocation: 40% for system upgrades, which are provided as 30% community energy fund dividends, and 30% are paid as dividends to members.
Module 3: Economic Impact Assessment of Energy Projects
Tools and Methods
3. Sensitivity Analysis This approach studies how the outcome of an economy shifts due to changes in critical factors or assumptions of the model. Common Variables: Energy prices (e.g., retail tariffs are increasing) PV output (e.g., variability due to weather) Discount rate (e.g., cost of capital) Government funding policy alterations or changes in policies Example: A cooperative investigates the effect of increasing electricity prices from €0.20 to €0.35/kWh on the payback time of solar + battery systems. The outcome is that payback reduces from 11 years to 7 years.
Module 3: Economic Impact Assessment of Energy Projects
Tools and Methods
4. Scenario ModelingScenario modeling as a technique involves evaluating a project’s performance on the basis of its three-dimensional alternatives, thus helping to foresee the future.Typical scenarios:
- Solar Systems Adoption: Change in Community Profitability Stakeholder Net Benefit when 30% vs 70% of Households Install PV.
- With vs Without Available Energy Storage
- Centralized Grid Supply vs Community Microgrid
- Mixed-Income Community Membership vs Low-Income Community Membership
Example Use Case: A municipality models three scenarios:Module 4: Community Energy Framework in the European Union (EU) and partner countries
Community energy EU framework
The EU Community Energy Framework is a policy and legal framework that lives within the ‘Energy’ section of the EU law and allows, supports the engagement of citizens and communities in the energy transition process. It represents a change from the current communistic, centralized modes of energy production and delivery towards participatory, localized, democratic systems of energy production and consumption as invoked in the European Clean Energy Package and the European Green Deal.
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Rights and Protections
As per the EU legislation, energy communities are entitled to:
Visit the European Union website to learn more about the legislation
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Partner countries obligations
Every European Union Member State has to:
- Incorporate the Directives at the national level
- Eliminate unjustified obstacles to community energy
- Guarantee access to the market on nondiscriminatory basis
- Offer policy, non-conflictual, and fiscal support to the energy communities
- Aid citizens and communities in designing and implementing localized regional energy strategies.
As with most policies in the EU, it is equally critical that Member States follow legislation on community energy as doing so allows all citizens, local governments, and micro enterprises to be active participants in and beneficiaries of the energy transition. Through the adoption of appropriate legal and financial measures, Member States foster the democratization of energy systems, alleviate energy poverty, and increase renewable energy adoption at the local level. Compliance also enhances energy resilience, bolsters local economic development, and supports the alignment of subnational policies with EU strategic climate objectives, thus making sure that the Green Deal is not only top-down, but rather driven by citizens and inclusive.Module 4: Community Energy Framework in the European Union (EU) and partner countries
Key EU-Level Policies
Clean Energy for All Europeans Package (2019)
Renewable Energy Directive (RED II).
State Aid Guidelines for Climate and Energy (CEEAG)
Electricity Directive (EU) 2019/944
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Clean Energy for All Europeans Package (2019) This EU policy framework introduced the concepts of Renewable Energy Communities (RECs) and Citizen Energy Communities (CECs). It recognizes the rights of citizens to generate, consume, store, and sell renewable energy individually or collectively. Renewable Energy Directive (RED II) Encourages Member States to support community ownership models and simplify administrative procedures for small producers. It aims to remove barriers and promote the growth of decentralised, citizen-driven energy. Electricity Directive (EU) 2019/944 Defines legal rights for Citizen Energy Communities, including fair access to energy markets and the ability to operate their own distribution networks under certain conditions. State Aid Guidelines for Climate and Energy (CEEAG) Outlines how governments can provide financial support for community and green energy without violating competition laws.
Analytically...
Module 4: Community Energy Framework in the European Union (EU) and partner countries
National Implementation Examples Greece Greece introduced its first legal framework for community energy with Law 4513/2018, which formally recognizes Energy Communities (EnCos). These entities can produce, store, and distribute energy, often with tax exemptions and access to national funding. While the legislation is supportive, implementation has faced bureaucratic delays and grid connection difficulties, which continue to be significant barriers for small communities. Bulgaria Community energy is still at an early stage in Bulgaria. While the EU directives apply, there is no dedicated national legal framework for energy communities as of now. Projects are typically led by municipalities or NGOs on a pilot basis. Challenges include low public awareness, lack of financial incentives, and a centralized energy market that offers limited space for citizen participation. Italy Italy has made strong progress with Legislative Decree 199/2021, which promotes Renewable Energy Communities (RECs) in line with RED II. The decree simplifies administrative procedures and allows self-consumption and energy sharing among members. National incentives such as feed-in tariffs and investment subsidies have made Italy one of the more supportive countries in Southern Europe for community energy.
Module 4: Community Energy Framework in the European Union (EU) and partner countries
National Implementation Examples Lithuania Lithuania has adopted laws enabling energy communities and has included them in national climate strategies. Citizens can now join or create cooperatives that generate and share renewable energy. Supportive frameworks are in place, but limited financial resources, technical expertise, and low visibility of the concept remain obstacles to rapid growth. Austria Austria is considered a leader in community energy. Since 2021, it has adopted a national legal framework for Energy Communities aligned with EU directives. Austrian law encourages both renewable and citizen energy communities, offering access to simplified permitting, incentives, and grid access. Strong cooperative traditions and regional energy agencies further support community-led initiatives.
Module 4: Community Energy Framework in the European Union (EU) and partner countries
Initiatives for energy communities
1. EU Energy Communities Repository(Helps citizens start and grow energy communities with mentoring and funding) https://energy-communities-repository.ec.europa.eu2. EU Rural Energy Community Advisory Hub Focuses on rural and remote regions https://rural-energy-community-hub.ec.europa.eu 3. REScoop.euThe federation of European citizen energy cooperatives https://www.rescoop.eu
Module 5: Innovative renewable technologies
Innovative renewable technologies go far beyond simply producing green energy—they fundamentally transform how energy is managed, shared, and experienced within a community. These tools allow energy systems to become intelligent, responsive, and deeply participatory. Artificial Intelligence (AI) can forecast energy production and demand by analyzing usage patterns and weather data, while smart grids automatically balance supply and demand across different homes and facilities. Blockchain enables peer-to-peer trading, allowing neighbors to buy and sell electricity securely and transparently. Digital twins allow communities to simulate different scenarios before making costly or technical changes. Combined with digital engagement platforms, these innovations help shift citizens from passive consumers to active energy participants.
What Makes Technology “Innovative” in Community Energy?
Module 5: Innovative renewable technologies
Artificial Intelligence in Community Energy Artificial Intelligence (AI) is rapidly transforming the way energy systems are managed at the community level. By using predictive algorithms, AI can forecast both energy production—based on factors like weather and sunlight—and community consumption patterns. This enables automated adjustments to energy flow, maximizing efficiency and reducing waste. AI also plays a key role in grid optimization, identifying maintenance needs before failures occur and helping to balance load distribution. A real-world example is the use of AI-driven solar inverters, which can adjust output dynamically based on sunlight forecasts and live community usage data. This type of technology not only improves performance but also supports more responsive and resilient community grids.
Module 5: Innovative renewable technologies
Decoded: What is a 'Smart Grid' and how does it work?
Smart Grids and Digital TwinsSmart grids are intelligent electricity networks that manage the flow of power in real time, allowing both energy consumption and generation to happen simultaneously within a local system. These networks integrate distributed energy resources (DERs), electric vehicles, and storage solutions while continuously adjusting to shifts in supply and demand. Key components of a smart grid include smart meters, IoT-connected sensors, and automated substations—all of which work together to optimize system performance. In parallel, digital twins act as virtual models of real energy systems. Communities can use them to simulate upgrades, test new technologies, and assess system vulnerabilities before implementing changes in the real world. Together, smart grids and digital twins form the digital backbone of modern, data-driven community energy.
Module 5: Innovative renewable technologies
Blockchain and Peer-to-Peer Energy TradingBlockchain is a powerful tool that enables secure, transparent energy transactions without the need for central intermediaries like utility companies. In community energy settings, blockchain allows residents with solar panels or other generation sources to sell their surplus energy directly to neighbors—creating decentralized, peer-to-peer (P2P) trading networks. These micro-transactions are recorded and verified automatically, reducing administrative costs and increasing trust among users. By decentralizing the flow of energy and money, blockchain platforms support local energy independence, encourage citizen participation, and promote equitable energy access within communities. As energy systems become more interconnected, blockchain ensures that community ownership remains fair, traceable, and transparent.
Module 5: Innovative renewable technologies
Case Study: BürgerEnergie Berlin (Germany) Overview: Power Ledger is a tech-driven platform based in Australia that enables peer-to-peer energy trading through a combination of blockchain and artificial intelligence. It allows households with solar panels to sell excess electricity directly to others in their community—creating a transparent, local energy marketplace. Key Highlights:
- Uses blockchain to manage and record energy transactions securely and in real time.
- AI algorithms help forecast supply and demand for smarter, more efficient energy distribution.
- Offers a simple digital interface where users can monitor usage, set prices, and receive payments.
- Encourages local energy independence and reduced reliance on large utility companies.
Takeaway: Power Ledger demonstrates how innovative digital technologies can transform traditional energy systems into participatory, decentralized networks. It shows how communities can take control of their energy production and consumption while promoting sustainability, transparency, and engagement.https://powerledger.io/
Module 6: Conclusion
The course emphasizes that the energy transition is not only a technological change, but rather a reconfiguration of structures—including economic, social, and political systems. As discussed in the modules, community energy projects can stimulate local employment, reduce costs, enhance democratic participation, and build resilience. Through examining enabling policies and effective management, alongside new digital tools, the course outlines how communities can mitigate obstacles and subsequently expand their reach. Participants are encouraged to apply this knowledge and assume different roles to advance local energy initiatives wherever possible. The conclusion is unequivocal: energy initiatives will be locally driven, participatory, and collaboratively transformed.
Exercises
Exercise 2
Exercise 1
In this exercise, learners are going to create a workable plan for a community energy project within a specified locality. They will balance the technological options of an energy system alongside the definable system management and economics including the relevant policies of the EU, key players, stakeholders, and economical aspects of the energy solution. Through the application of community conceptual frameworks such as stakeholder mapping and rudimentary budgeting, learners demonstrate how community projects can be designed to enhance participation, sustainability, and local impacts. The final output will be a brief proposal, presentation, or audio recording that encapsulates a well-defined and practical project idea.
IIn this activity, learners will develop a creative plan for integrating advanced technologies into a fictional or real community energy system. By selecting two digital tools—such as AI, blockchain, or digital twins—they will describe how these innovations improve performance, reduce costs, or boost engagement. The outcome will be a short written concept or a visual sketch that illustrates the system and its benefits. .
Practical Exercise: Tech Integration Brainstorm
Objective:
Learners will design a tech-enhanced plan for a community energy system using one or more digital innovations.
Steps::
- Select a fictional or real community (urban or rural).
- Choose 2 innovative technologies (e.g., smart meters, AI analytics, blockchain, digital twin).
- Describe how each would be applied to improve the project.
- Explain expected benefits: increased efficiency, cost reduction, or better community engagement.
- Sketch the system on paper or digitally using diagrams or short descriptions.
Deliverable: A short written concept (300–400 words) or infographic/system sketch.Practical Exercise: Design a Community Energy Project Framework
Objective:
Learners will Design a Community Energy Project Framework
Steps:
- Define the Community Context
- Choose the Energy Solution
- Design the management structure
- Assess the Economic Dimensions
- Identify and map stakeholders
- Align with EU Policy
- Present your framework
Deliverable: Short proposal (1-2 pages) or Presentation (4-6 slides)Evaluation
Evaluation Quiz
1. This quiz consists of 10 multiple-choice questions related to energy sources, environmental impact, and energy transition. 2. Choose the correct answer for each question (only one per question). 3. The quiz helps reinforce key concepts covered in the course.
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Sources
Energie Partagée. (n.d.). Participer au financement citoyen de la transition énergétique. Retrieved from https://energie-partagee.org/ Energent. (n.d.). Smart energy management for housing cooperatives. Retrieved from https://www.energent.fi/ European Commission. (2019). Clean energy for all Europeans package. Retrieved from https://energy.ec.europa.eu/topics/energy-strategy/clean-energy-all-europeans_en European Commission. (2020). Horizon 2020 Projects: Community energy and innovation. Retrieved from https://ec.europa.eu/programmes/horizon2020/ Interreg North Sea Region. (n.d.). ECCO - Energy Community Co-Operatives. Retrieved from https://northsearegion.eu/ecco/ Power Ledger. (n.d.). Empowering energy markets. Retrieved from https://www.powerledger.io/ REScoop.eu. (n.d.). MECISE – Mobilising European Citizens to Invest in Sustainable Energy. Retrieved from https://www.rescoop.eu/mecise REScoop.eu. (n.d.). European Federation of Renewable Energy Cooperatives. Retrieved from https://www.rescoop.eu/ Smart Energy International. (2022). AI and predictive analytics in smart grid energy management. Retrieved from https://www.smart-energy.com/ Trello. (n.d.). Project management tools for collaboration. Retrieved from https://trello.com/
Certificate
Congratulations!
Certificate of Completion
To receive an Open Badge for this course, please contact the local project partner: Kaunas University of Technology.
Level completed!
Funded by the European Union. Views and opinions expressed are however those of the author(s) only and do not necessarily reflect those of the European Union or the National Agency. Neither the European Union nor National Agency can be held responsible for them.
Threats
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Opportunities
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Why it’s a benefit:
Community energy projects need local manpower for planning, installation, operation, upkeep, administration, education, and public relations.This:
Increased spending power leads to rising employment opportunities and entrepreneurial activities in the community.
Why it’s a benefit:
Because community energy is locally owned, the majority of profits and savings on energy expenses:
Each euro contributed by a local project offers a return far greater or a “multiplier effect”, propelling broader local economic development.
Why it's a benefit:
The community members utilised under the micro and small construction projects financing have shown that they frequently receive electricity at a far lower cost when compared to the market price and even engage in profit sharing as concerning the energy project.This is especially impactful for:
- For improving energy equity, low income earning households are the primary beneficiaries.
- For remote or underserved areas, it helps increase access to reliable and stable energy services.
The reduced energy poverty, coupled with an increase in savings, translates to a greater portion of disposable income in the community – and thus contributes more to community development.Weaknesses
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Why it’s a benefit:
Community energy hubs can advance the development of:
These clusters drive long-term sustainable innovation, competitiveness, and industrial green-shift growth in the region.
Why it's a benefit:
There is financial support for public projects through public aids, green grants and even loans that come with a lower interest rate. They also have the capability of generating funds through Citizen shares, bonds, and even crowdfunds. Another helpful method is the reduction of risks by diversifying ownership and sharing participatory control. Often, in comparison to corporate led models, these projects require less expensive, as well as more stable means of financing, proving to be a beneficial long term investment.
Strengths
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Why it’s a benefit:
In corporate-led initiatives, profits are generally siphoned off to shareholders or other external organizations.
This means enhanced net economic value for the community per energy unit produced.
Why it’s a benefit:
The municipalities involved in community energy projects can:
Increasing financial autonomy enables decreased reliance on central funding and unstable markets, bolstering overall resilience.