Energy in Langeland Kommune
Explore renewable energy data and climate plans for Langeland Kommune. See how your municipality is progressing towards a green energy future.
67.5%
Renewable Energy
Share of total energy consumption from renewable sources
80.7
Total Consumption (GWh)
Annual electricity consumption across all sectors
48.0
Renewable Capacity (MW)
Total installed solar and wind power capacity
9,964
Estimated Households
Approximate number of households based on private consumption
Climate Action Plan
Langeland Kommune has put itself on the map as a climate municipality with great ambitions and concrete actions. With the goal of CO2 neutrality by 2050 and an interim reduction of 70 percent by 2030 compared to 1990, the municipality is leading the way in the green transition. As an island municipality with 150 kilometres of coastline and a landscape dominated by agriculture, Langeland faces unique climate challenges that require tailored solutions. The municipality's total CO2 emissions were 142,598 tonnes in 2019 (p. 15), equivalent to approximately 11 tonnes per capita. What is remarkable about Langeland's climate profile is the extreme dominance of agriculture, which accounts for a full 70 percent of emissions (p. 15), while the transport sector contributes 25 percent. The energy sector accounts for only 3 percent thanks to the municipality's impressive overproduction of wind energy at 162 percent of local electricity consumption (p. 20). This distribution makes Langeland very different from most Danish municipalities, where energy typically plays a larger role. What makes Langeland's climate efforts particularly complex is the combination of being a bridge-connected island with massive agricultural emissions and a high groundwater table. The municipality has already achieved a 25 percent reduction since 1990 (p. 7), primarily thanks to the major investment in wind turbines and biomass-based district heating. However, the overproduction of renewable energy paradoxically becomes a problem after 2030, as surplus electricity will no longer count positively in the climate accounts when the national grid is expected to be CO2-neutral. The most ambitious planned measures focus on utilising Langeland's energy surplus intelligently. A Power-to-X plant in symbiosis with a biogas facility will produce 250 tonnes of hydrogen annually (p. 21), enough to cover the entire non-road and fisheries sector's fuel needs. At the same time, the municipality plans massive afforestation of 500 hectares by 2050 (p. 27) and retirement of 500 hectares of climate-impacting lowland soils. The Strynø ferry, which is municipally owned, will be converted to HVO biodiesel in 2025 with an 80 percent CO2 reduction. Nevertheless, the municipality faces significant challenges. Even with all planned measures, there will be a shortfall of 35,847 tonnes of CO2 in 2030 and 54,910 tonnes in 2050 (p. 18). This shortfall consists primarily of emissions from agriculture and transport, over which the municipality has limited influence. Many of the solutions depend on national legislation, technological development, and market forces that the municipality cannot control. Langeland Kommune is betting on broad engagement through the establishment of a climate council and partnerships with local actors such as Skovsgaard, Langeland Forsyning, and Den Grønne Rygrad. A special initiative is the development of educational programmes on environment and sustainability for all schools in the municipality. Through the joint Funen vision FYN2030, the municipality has also committed to an even more ambitious reduction of 80 percent as early as 2030, underscoring the serious commitment to the climate effort.
Source: DK2020 KLIMAPLAN (2022)
143K
Current emissions
11 ton CO2e Per capita
70%
2030 reduction target
Baseline emissions: 191K
Sector Breakdown
Energy
3%
Transport
25%
Agriculture
70%
Industry
1%
Waste & Wastewater
1%
Flagship Projects
Power-to-X plant with biogas facility
250 tonnes of hydrogen annually in symbiosis with a biogas plant, capable of eliminating emissions from non-road and fisheries
Energy
Strynø ferry on HVO biodiesel
Municipally owned ferry switches to HVO/biodiesel in 2025 with 80% CO2 reduction
Transport
Afforestation 500 ha
Planting of 90 ha of new forest by 2025, totalling 500 ha by 2050
Agriculture
Planned Climate Actions
Concrete measures from the municipal climate action plan, organized by sector.
Energy Supply
- •
Phase-out of oil boilers
- •
Wind turbines - 20% increase
- •
Solar panels - doubling
- •
Biogas and PtX plants
- •
CO2 capture
Transport
- •
Fossil-free public transport
- •
Electric vehicles in municipal fleet
- •
Charging infrastructure expansion
- •
Strynø ferry on HVO/biodiesel
- •
Cycling campaign
Agriculture
- •
Afforestation 90 ha by 2025
- •
Retirement of lowland soils 100 ha
- •
Establishment of wetlands 225 ha
- •
Manure management
- •
Pyrolysis plant
Municipal Operations
- •
Fossil-free heating and electricity by 2025
- •
50% of fleet fossil-free by 2025
- •
Energy renovation 15% reduction
Climate Adaptation
- •
New climate adaptation plan
- •
Separate sewerage
- •
Storm surge protection for Hou and Bagenkop
- •
State road across Siø
Citizen Engagement
- •
Sustainable procurement policy
- •
Waste sorting and recycling
- •
Climate partnerships
- •
Establishment of Langeland Climate Council
Local Characteristics
Key industry: Agriculture - 71.5% of the municipality's area
162% self-sufficiency in wind energy, Virtually fossil-free district heating, Biomass such as straw and wood chips
Island municipality, 150 km coastline, Langelandsbroen, Low-lying areas, Magleby Nor
Dike pumping stations, Drained areas, Overproduction of renewable energy without effect after 2030, Bridge-connected island
Partnerships & Alliances
- •
FYN2030
- •
§17 stk. 4 Climate, Environment and Nature Committee
- •
Ø-strøm
- •
Den Grønne Rygrad
- •
Joint Funen partnership agreement with agriculture
Citizen Involvement
- •
Awareness campaigns
- •
Langeland Climate Council
- •
Climate partnerships
- •
Educational programmes focusing on environment and sustainability
Climate Risks & Adaptation
Cloudburst-like rainfall, Increased precipitation, Rising sea levels, High groundwater table, Storm surges
Planned measures
- •
Development of new climate adaptation plan
- •
Separate sewerage
- •
Storm surge protection
- •
Rainwater management
2030 Gap Analysis
35,847 ton CO2e remaining gap to 2030 target
Continuously support innovative and new technological CO2 reduction solutions
Calculate Your Energy Community's Needs
25
Homes
=
0.09
GWh annually
Based on 3,500 kWh average consumption
Energy Type
Wind is consistent all year round and requires less land but the construction time is longer than solar.
1 Wind Turbine